mhurhangee/ep-ind-claims huggingface dataset:
An imaging device, comprising: a single optical imaging system; an imaging element that includes a first pixel group and a second pixel group that respectively photo-electronically convert luminous fluxes that pass through different areas of the single imaging optical system, the imaging element being configured to generate a first three-dimensional image that is formed of a first A-screen image according to output values of the first pixel group and a second B-screen image according to output values of the second pixel group; to generate a two dimensional C-screen image using a pixel addition means to perform pixel addition for the pixels of the first A-screen image and the second B-screen image under the same imaging condition as in the first three-dimensional image; a shading correction means (24, 40) configured to calculate correction gains for an A-screen shading correction table based on the first A-screen image and the two dimensional C-screen image during imaging such that a pixel value of the first A-screen image multiplied by its related correction gain equals the corresponding pixel value of the two dimensional C-screen image and calculate correction gains for a B-screen shading correction table based on the second B-screen image and the two dimensional C-screen image during imaging such that a pixel value of the first B-screen image multiplied by its related correction gain equals the corresponding pixel value of the two dimensional C-screen image. a single optical imaging system; an imaging element that includes a first pixel group and a second pixel group that respectively photo-electronically convert luminous fluxes that pass through different areas of the single imaging optical system, the imaging element being configured to generate a first three-dimensional image that is formed of a first A-screen image according to output values of the first pixel group and a second B-screen image according to output values of the second pixel group; to generate a two dimensional C-screen image using a pixel addition means to perform pixel addition for the pixels of the first A-screen image and the second B-screen image under the same imaging condition as in the first three-dimensional image; a shading correction means (24, 40) configured to calculate correction gains for an A-screen shading correction table based on the first A-screen image and the two dimensional C-screen image during imaging such that a pixel value of the first A-screen image multiplied by its related correction gain equals the corresponding pixel value of the two dimensional C-screen image and calculate correction gains for a B-screen shading correction table based on the second B-screen image and the two dimensional C-screen image during imaging such that a pixel value of the first B-screen image multiplied by its related correction gain equals the corresponding pixel value of the two dimensional C-screen image.
Device for preparation of a flat profiled element from an elastomeric thermoplastic gel comprising: - an extruder with at least one feed and one discharge; - an extruder die of section suitable for the profile of the flat profiled element; - a liquid cooling bath with a free surface for receiving and cooling the flat profiled element being discharged from the extruder die; and - a flat moving support or endless conveyor belt for receiving the profiled element; characterized in that the free surface is arranged in the immediate vicinity of the outlet of the extruder die, and in that the angle of inclination of the axis of the extruder die to the horizontal is between 20 and 70 degrees. - an extruder with at least one feed and one discharge; - an extruder die of section suitable for the profile of the flat profiled element; - a liquid cooling bath with a free surface for receiving and cooling the flat profiled element being discharged from the extruder die; and - a flat moving support or endless conveyor belt for receiving the profiled element; characterized in that the free surface is arranged in the immediate vicinity of the outlet of the extruder die, and in that the angle of inclination of the axis of the extruder die to the horizontal is between 20 and 70 degrees.
A method of generating light under scotopic conditions in response to an event, the method comprising the steps of: prior to the event, energizing one or more first light emitting elements thereby generating primary illumination of a first wavelength range over a target area; upon occurrence of the event, energizing one or more second light emitting elements thereby generating secondary illumination of a second wavelength range toward the target area during a critical period defined by the occurrence of the event, the second wavelength range being different from the first wavelength range, wherein the primary illumination and the secondary illumination are both energized and combined within at least a portion of the target area thereby enhancing at least one visual property under scotopic conditions within the at least a portion of the target area, wherein the event comprises at least one of: activation of a motion sensor, activation of an occupancy sensor, attaining a specified ambient light threshold level, and automated activation at a preselected time interval, and wherein the at least one visual property comprises at least one of: color temperature, color rendering, depth perception, and night vision. prior to the event, energizing one or more first light emitting elements thereby generating primary illumination of a first wavelength range over a target area; upon occurrence of the event, energizing one or more second light emitting elements thereby generating secondary illumination of a second wavelength range toward the target area during a critical period defined by the occurrence of the event, the second wavelength range being different from the first wavelength range, wherein the primary illumination and the secondary illumination are both energized and combined within at least a portion of the target area thereby enhancing at least one visual property under scotopic conditions within the at least a portion of the target area, wherein the event comprises at least one of: activation of a motion sensor, activation of an occupancy sensor, attaining a specified ambient light threshold level, and automated activation at a preselected time interval, and wherein the at least one visual property comprises at least one of: color temperature, color rendering, depth perception, and night vision.
A lawn mower, comprising: a driving assembly, comprising a motor; an impact protection assembly, comprising a pressing member and an elastic piece; a transmission assembly, comprising a first gear connected to a motor shaft and a second gear meshed with the first gear, a cutting assembly comprising a first blade connected to the second gear; wherein the pressing member is arranged to press the elastic piece against the transmission assembly and drive the transmission assembly and the cutting assembly to rotate synchronously with the motor shaft, such that the transmission assembly and the motor shaft rotate relative each other, when the resistance received by the cutting assembly is greater than a predetermined value; characterized in that the impact protection assembly further comprises a pressing block and a friction plate, and the elastic piece, the pressing block and the friction plate are sequentially clampable by the pressing member and the first gear and in that the first gear comprises a gear connection member and a gear ring fixed on the gear connection member, and the friction plate is in contact with the gear connection member. a driving assembly, comprising a motor; an impact protection assembly, comprising a pressing member and an elastic piece; a transmission assembly, comprising a first gear connected to a motor shaft and a second gear meshed with the first gear, a cutting assembly comprising a first blade connected to the second gear; wherein the pressing member is arranged to press the elastic piece against the transmission assembly and drive the transmission assembly and the cutting assembly to rotate synchronously with the motor shaft, such that the transmission assembly and the motor shaft rotate relative each other, when the resistance received by the cutting assembly is greater than a predetermined value;
A method of making an aerosol container, said method comprising the steps of: providing a polymeric outer container having a closed end bottom and an open neck longitudinally opposed thereto, a valve and a product delivery device (55, 56), said valve and said product delivery device (55, 56) being complementary to said open neck, disposing said product delivery device (55, 56) in said outer container and in contacting relationship with said neck, disposing said valve at least partially in said outer container and in contacting relationship with said neck and said product delivery device (55, 56), spinning said valve 28 relative to said product delivery device (55, 56) to weld said valve to said product delivery device (55, 56) at a product delivery device spin weld (55W, 56W), charging said outer container with propellant, and spinning said valve relative to said outer container to weld said valve to said outer container at an outer container spin weld, thereby sealing said propellant therein. providing a polymeric outer container having a closed end bottom and an open neck longitudinally opposed thereto, a valve and a product delivery device (55, 56), said valve and said product delivery device (55, 56) being complementary to said open neck, disposing said product delivery device (55, 56) in said outer container and in contacting relationship with said neck, disposing said valve at least partially in said outer container and in contacting relationship with said neck and said product delivery device (55, 56), spinning said valve 28 relative to said product delivery device (55, 56) to weld said valve to said product delivery device (55, 56) at a product delivery device spin weld (55W, 56W), charging said outer container with propellant, and spinning said valve relative to said outer container to weld said valve to said outer container at an outer container spin weld, thereby sealing said propellant therein.
A method of operating a wind turbine with a rotor, which includes at least one angularly adjustable rotor blade, wherein an operating parameter is determined by a measurement process and is monitored by a safety system independent of an operational management system and when an operational parameter threshold value is reached a braking process of the rotor is initiated by the safety system, characterised in that the wind turbine is operated in a first operational mode or a second operational mode, wherein the first operational mode is an output-optimised normal operation and the second operational mode is a speed-reduced and/or output-reduced operational mode outside the output-optimised normal operation, wherein the operating parameter is a rotor acceleration and in the first operational mode and/or second operational mode a braking process of the rotor is initiated when a rotor acceleration prevails which is larger than a rotor acceleration threshold value.
A plaster profile, which extends in a longitudinal direction, comprising a corner portion and at least one limb which adjoins the corner portion transversely to the longitudinal direction, wherein the corner portion comprises a flat, at least regionally closed strip which is bent over along a corner edge aligned in parallel with the longitudinal direction, and wherein the at least one limb comprises an areal wire structure of wires (21, 23) connected to one another, characterized in that at least one reinforcement fabric is provided at the plaster profile, said reinforcement fabric being partly integrated into the wire structure of a respective limb and projecting over the respective limb in a direction facing away from the corner portion.
Antenna module, comprising: a first substrate, a second substrate (5, 5', 5"), said second substrate (5, 5', 5") comprising at least one cavity (13, 14, 14a, 14b) at a first main surface, wherein the first substrate comprises at least an RF antenna element, in particular an RF chip and/or an RF conductive trace, the RF antenna element or the RF chip or the RF conductive trace being arranged on or in a first main surface of the first substrate, wherein the first substrate is connected, with its first main surface, to the first main surface of the second substrate (5, 5', 5"), wherein the RF antenna element or the RF chip or the RF conductive trace projects out of the first main surface and into the at least one cavity (13, 14, 14a, 14b), wherein the first substrate is a high-resistance or an insulating substrate, in particular comprising a glass material or a ceramic material or a polymer material, characterized in that the at least one cavity comprises an electrically contacted cavity metallization having a reduced width so that the cavity metallization extends only across an area of the at least one cavity, wherein the antenna module comprises a meta material being arranged on a bottom of the at least one cavity (13, 14, 14a, 14b) and associated with the RF antenna element. a first substrate, a second substrate (5, 5', 5"), said second substrate (5, 5', 5") comprising at least one cavity (13, 14, 14a, 14b) at a first main surface, wherein the first substrate comprises at least an RF antenna element, in particular an RF chip and/or an RF conductive trace, the RF antenna element or the RF chip or the RF conductive trace being arranged on or in a first main surface of the first substrate, wherein the first substrate is connected, with its first main surface, to the first main surface of the second substrate (5, 5', 5"), wherein the RF antenna element or the RF chip or the RF conductive trace projects out of the first main surface and into the at least one cavity (13, 14, 14a, 14b), wherein the first substrate is a high-resistance or an insulating substrate, in particular comprising a glass material or a ceramic material or a polymer material, characterized in that the at least one cavity comprises an electrically contacted cavity metallization having a reduced width so that the cavity metallization extends only across an area of the at least one cavity, wherein the antenna module comprises a meta material being arranged on a bottom of the at least one cavity (13, 14, 14a, 14b) and associated with the RF antenna element.
A method of processing a positron emission tomography imaging data set acquired of a subject, the method comprising: generating image content independently for each positron-electron annihilation event of a plurality of positron-electron annihilation events of the PET imaging data set based on time-of-flight localization to form a generated image comprising an accumulation of the independently generated image content, wherein the generating operations are performed by a digital processor; characterized by delineating a spatial contour of an image of the subject in the PET imaging data set based on the generated image, the spatial contour corresponding to a contour of the subject; and constructing a subject attenuation map for use in PET image reconstruction based at least in part on the spatial contour, wherein said spatial contour is delineated based on the generated image formed based on said time-of-flight localization. generating image content independently for each positron-electron annihilation event of a plurality of positron-electron annihilation events of the PET imaging data set based on time-of-flight localization to form a generated image comprising an accumulation of the independently generated image content, wherein the generating operations are performed by a digital processor; characterized by delineating a spatial contour of an image of the subject in the PET imaging data set based on the generated image, the spatial contour corresponding to a contour of the subject; and constructing a subject attenuation map for use in PET image reconstruction based at least in part on the spatial contour, wherein said spatial contour is delineated based on the generated image formed based on said time-of-flight localization.
Cored wire for charging a molten metal bath, comprising a metallic sheath and a filling material in the form of a powder, characterized in that i) the filler is a mixture of powders, on the one hand molybdenum trioxide, and, on the other hand, at least one reducing element, ii) the molybdenum trioxide powder consists of a granulometric fraction in which 100% of the particles are smaller than 1000 μm, and iii) the reducing element has a particle size less than or equal to 1500 μm; and in that the proportions of powders, between the molybdenum trioxide, on the one hand, and the reducing element(s), on the other hand, are stoichiometric or super-stoichiometric, and wherein the reducing element(s) are in excess. i) the filler is a mixture of powders, on the one hand molybdenum trioxide, and, on the other hand, at least one reducing element, ii) the molybdenum trioxide powder consists of a granulometric fraction in which 100% of the particles are smaller than 1000 μm, and iii) the reducing element has a particle size less than or equal to 1500 μm;
Mobile defense device for defending against and for deterring an attacker or an intruder with a defense device, with an adapter for receiving the defense device and with a warning signal device, wherein, with the defense device, the attacker or the intruder can be deterred if the defense device is arranged in the adapter, wherein the warning signal device comprises an actuatable warning signal trigger and a warning signal generator, wherein, upon actuation of the warning signal trigger, a warning signal is permanently replayed by the warning signal generator, in order to deter the attacker or the intruder through the warning signal, wherein the defense device is a standardized irritant spraying device, characterized in that the adapter is configured for receiving the defense device such that the defense device can be non-rotationally secured on or in the adapter.
Method for producing 9-decen-2-one, characterised by the bioconverting of undecylenic acid using a mould belonging to the family Mortierellaceae or to the family Mucoraceae, said method comprising the following steps: a) the culturing of said mould; b) the adding of the undecylenic acid substrate with a flow rate from 0.1 to 0.9 g/L/h in the presence of oil; c) the bioconverting of the substrate into 9-decen-2-one, d) the extracting and the purifying of the 9-decen-2-one. a) the culturing of said mould; b) the adding of the undecylenic acid substrate with a flow rate from 0.1 to 0.9 g/L/h in the presence of oil; c) the bioconverting of the substrate into 9-decen-2-one, d) the extracting and the purifying of the 9-decen-2-one.
A neutral calcium-aluminum double salt of the formula: Ca 2m (Zn 2n)Al 2 6+2(2m+2n-1) An * oH 2 O, where the following apply for m and n: m = 0.5 to 3 and 0.5 m ≥ n > 0; An = CO 3, where this can be replaced completely or partially by at least one of the following groups selected from OH, ClO 4 and F 3 CS(=O) 2 O (triflate) and o = 0 to 3.
An aqueous coating composition comprising: (i) a crosslinkable binder resin having latent crosslinking functionality; (ii) an effective crosslinking amount of a crosslinker for the binder resin; and (iii) a water reducible monomer modified alkyd obtained by the acidolysis of a polyalkylene terephthalate or polyalkylene naphthalate and subsequent monomer modification to produce a polymer having an acid value less than 30. (i) a crosslinkable binder resin having latent crosslinking functionality; (ii) an effective crosslinking amount of a crosslinker for the binder resin; and (iii) a water reducible monomer modified alkyd obtained by the acidolysis of a polyalkylene terephthalate or polyalkylene naphthalate and subsequent monomer modification to produce a polymer having an acid value less than 30.
A holding frame for receiving plug connector modules, consisting of two opposed frame parts having recesses provided therein, holding means of the plug connector modules to be received being adapted to be inserted into the recesses, characterized in that spring elements are provided on the holding frame, the spring elements being adapted to act on plug connector modules received in the holding frame, and the spring elements exerting at least a force acting in the plug-in direction on received plug connector modules.
A method for carrying out a hydrothermal carbonization reaction, in which biomass is supplied to a reaction tank, and reaction conditions with regard to pressure and temperature necessary for carrying out a hydrothermal carbonization reaction are provided by introducing steam and are maintained for a reaction period, characterized in that during the reaction period, a slurry is formed from the introduced steam and the biomass, and is monitored with regard to the variation in its pH over time, wherein the reaction is terminated as soon as an exceedance of a maximum of this pH is determined.
Electrolysis arrangement comprising: - an enclosure having a primary level with a floor spanned by a first direction (x) and a second direction (y) that is perpendicular to the first direction (x), - multiple stacks of electrolysis cells, wherein the stacks are configured to obtain an anode product and a cathode product by electrolysis of a medium, and wherein the stacks are arranged on the primary level of the enclosure, - at least two transformers and at least two rectifiers configured to provide electrical energy to the stacks, wherein the transformers are arranged on the primary level of the enclosure, - an anode separator connected to the stacks and configured to separate the anode product from the medium, wherein the anode separator is arranged on a secondary level of the enclosure, wherein the secondary level is elevated with respect to the primary level, - a cathode separator connected to the stacks and configured to separate the cathode product from the medium, wherein the cathode separator is arranged on the secondary level of the enclosure, and - a pump unit for driving the medium, wherein the pump unit is arranged on the primary level of the enclosure, wherein the enclosure comprises three sections (10.1, 10.2,10.3) that are arranged next to each other along the first direction (x), wherein at least one of the stacks and at least one of the transformers are arranged within a first (10.1) of the sections, wherein the pump unit, the anode separator and the cathode separator are arranged within a second (10.2) of the sections, and wherein at least one of the stacks and at least one of the transformers are arranged within a third (10.3) of the sections. - an enclosure having a primary level with a floor spanned by a first direction (x) and a second direction (y) that is perpendicular to the first direction (x), - multiple stacks of electrolysis cells, wherein the stacks are configured to obtain an anode product and a cathode product by electrolysis of a medium, and wherein the stacks are arranged on the primary level of the enclosure, - at least two transformers and at least two rectifiers configured to provide electrical energy to the stacks, wherein the transformers are arranged on the primary level of the enclosure, - at least two transformers and at least two rectifiers configured to provide electrical energy to the stacks, wherein the transformers are arranged on the primary level of the enclosure, - an anode separator connected to the stacks and configured to separate the anode product from the medium, wherein the anode separator is arranged on a secondary level of the enclosure, wherein the secondary level is elevated with respect to the primary level, - a cathode separator connected to the stacks and configured to separate the cathode product from the medium, wherein the cathode separator is arranged on the secondary level of the enclosure, and - a pump unit for driving the medium, wherein the pump unit is arranged on the primary level of the enclosure,