mhurhangee/patent-ind-claim-en huggingface dataset:
An active protection system configured to destroy guided and non-guided missiles with shaped charge warheads, the system comprising: - a decision-making module ; - a destructors module ; and - a detection module that comprises an omnidirectional, passive, optoelectronic head with a broadband band-pass electromagnetic radiation filter, wherein the optoelectronic head comprises sensors positioned on a circumference of a circle thereby facilitating threat detection around a protected object whereas each sensor is configured to operate in zones by monitoring infrared radiation emitted by projectiles present in the respective zones such that time of presence in a given zone allows for determining speed and position of the projectiles; wherein the system is characterized in that : - the omnidirectional, passive, optoelectronic head is configured to work with infrared radiation and its broadband band-pass electromagnetic radiation filter is for wavelengths from 3 to 5,5 μm ; - the destructors module comprises a fragmenting projectiles launcher and a directed fragmentation warhead positioned on the protected object; and - the launched fragmenting projectile is configured to neutralize threats present in a further away zone from the protected object while a launched directed fragmentation warhead is configured to damage the projectile in a near zone. - a decision-making module ; - a destructors module ; and - a detection module that comprises an omnidirectional, passive, optoelectronic head with a broadband band-pass electromagnetic radiation filter, wherein the optoelectronic head comprises sensors positioned on a circumference of a circle thereby facilitating threat detection around a protected object whereas each sensor is configured to operate in zones by monitoring infrared radiation emitted by projectiles present in the respective zones such that time of presence in a given zone allows for determining speed and position of the projectiles; - the omnidirectional, passive, optoelectronic head is configured to work with infrared radiation and its broadband band-pass electromagnetic radiation filter is for wavelengths from 3 to 5,5 μm ; - the destructors module comprises a fragmenting projectiles launcher and a directed fragmentation warhead positioned on the protected object; and - the launched fragmenting projectile is configured to neutralize threats present in a further away zone from the protected object while a launched directed fragmentation warhead is configured to damage the projectile in a near zone.
An apparatus for bending a cap, the cap including a tamper-evident seal and a closure casing defining a perimeter edge, the tamper-evident seal being housed along the perimeter edge of the closure casing, the apparatus comprising: - a support unit , oriented along a longitudinal axis (X) and including a seat configured to receive the closure casing; - a locking unit oriented along the longitudinal axis (X), wherein the support unit and the locking unit are movable reciprocally along the longitudinal axis (X) between a spaced-apart position and a close-together position where the locking unit is partly inserted in the closure casing positioned in the seat of the support unit , characterized in that it further comprises a deforming element , positioned laterally of the longitudinal axis (X) and movable towards and away from the longitudinal axis (X) between an inactive position of non-interference with the closure casing, and an active position, where it presses the perimeter edge of the closure casing from the outside to deform it plastically towards the longitudinal axis (X) so as to make a constraining seat that houses the tamper-evident seal, the deforming element being also movable by revolution about the longitudinal axis (X). - a support unit , oriented along a longitudinal axis (X) and including a seat configured to receive the closure casing; - a locking unit oriented along the longitudinal axis (X),
Ultrasonic sensor apparatus for a motor vehicle , having a printed circuit board which is of flexible design at least in regions and has a first printed circuit board region on which a transducer element is arranged, which transducer element is designed for emitting and/or receiving ultrasonic signals, wherein the printed circuit board is of flexible design on the first printed circuit board region or on a second printed circuit board region , and a second transducer element of the ultrasonic sensor apparatus , which second transducer element is separate from the first transducer element and is designed for emitting and/or receiving ultrasonic signals, is arranged on the second printed circuit board region , and wherein the printed circuit board has at least one flexible strip-like first printed circuit board sub-element as the second printed circuit board region , which first printed circuit board sub-element is connected to a printed circuit board main element of the printed circuit board as the first printed circuit board region or which first printed circuit board sub-element is connected to a printed circuit board main element of the printed circuit board , which printed circuit board main element is arranged outside the first printed circuit board region and the second printed circuit board region , and the printed circuit board has a flexible strip-like second printed circuit board sub-element as the first printed circuit board region , which second printed circuit board sub-element is connected to the printed circuit board main element , characterized in that the printed circuit board comprises at least one flexible strip-like third printed circuit board sub-element as the third printed circuit board region , which third printed circuit board sub-element, on a side which is averted from the printed circuit board main element , has an interface for connection to the motor vehicle and is designed without a transducer element.
Device for the pyrolysis of fuel (B, B2, B4) for heating a burner , in particular a burner of a rotary kiln plant, comprising a pyrolysis reactor , a gasification reactor , an air classifier arranged between the pyrolysis reactor and the gasification reactor , and a solids separator arranged downstream of the pyrolysis reactor , preferably a centrifugal separator, particularly preferably a cyclone separator, wherein the pyrolysis reactor has a pyrolysis interior with a first fuel feed device into the pyrolysis interior , wherein the gasification reactor has a gasifier interior with a second fuel feed device and with at least one air feed device into the gasifier interior , wherein the gasification reactor is arranged below the pyrolysis reactor as viewed in a height direction (H), and wherein the pyrolysis interior of the pyrolysis reactor is communicatively connected to the gasifier interior of the gasification reactor below by means of the air classifier arranged between the pyrolysis reactor and the gasification reactor , wherein an outlet of the pyrolysis reactor is provided for pyrolysis gas from the pyrolysis interior , wherein the outlet is fluidically connected to the downstream solids separator , and wherein the solids separator is set up to purify the pyrolysis gas in an operating state of the device and thus to produce a purified product gas (P) which can be fed to the burner , wherein the solids separator has a feed line for pyrolysis gas , a product gas line for the supply of purified product gas (P) to the burner and a return line for solid particles (B) separated from the pyrolysis gas , in particular for fine material particles (F), and wherein the feed line for pyrolysis gas is fluidically connected to the outlet of the pyrolysis reactor , wherein the outlet is preferably arranged in an upper interior zone of the pyrolysis reactor , and wherein the return line for fuel return is fluidically connected to the gasifier interior and preferably opens into the latter .
Process for controlling the amount of urea crystals present in an exhaust line comprising a catalytic converter for the selective catalytic reduction of nitrogen oxides (NOx) by means of a reducing agent, referred to as SCR, said process comprising the following steps: i) a step of heating the exhaust line to a temperature sufficient to sublimate the urea crystals, the heating step being periodically triggered on the basis of the result obtained from a computational model, said computational model being intended to estimate, at the current instant (t), the amount of urea crystals (MCt) present in the exhaust line, during this heating step, the amount of nitrogen oxides and/or the amount of reducing agent at the inlet and at the outlet of the catalytic converter are measured, then ii) a step of calculating the amount of urea crystals (MC m ) present in the exhaust line from the measurements carried out in step i), then iii) a step of adjusting said computational model by means of the amount of urea crystals calculated in step ii). i) a step of heating the exhaust line to a temperature sufficient to sublimate the urea crystals, the heating step being periodically triggered on the basis of the result obtained from a computational model, said computational model being intended to estimate, at the current instant (t), the amount of urea crystals (MCt) present in the exhaust line, during this heating step, the amount of nitrogen oxides and/or the amount of reducing agent at the inlet and at the outlet of the catalytic converter are measured, then ii) a step of calculating the amount of urea crystals (MC m ) present in the exhaust line from the measurements carried out in step i), then iii) a step of adjusting said computational model by means of the amount of urea crystals calculated in step ii).
Coolant jacket core for manufacturing a cylinder crankcase having a narrow web width comprising at least one integral base core which has at least two substantially hollow cylindrical section shaped core bodies arranged next to one another, the two core bodies arranged next to one another respectively having a common axially extending section plane , which forms a connecting surface between radial ends of the adjacent core bodies and a web core which connects the opposite radial ends of each core body in the section plane , characterized in that the web core comprises a plurality of individual web cores which are arranged axially one above the other, are adapted to be flushed from the cylinder crankcase together with the coolant jacket core, said individual web cores are fastened to the base core on the opposite radial ends arranged in the section plane of the core bodies .
Optical waveguide for expanding an exit pupil for a display device, having two or more partial optical waveguides adapted to different wavelengths, each having an input coupling hologram , a folding hologram and an output coupling hologram , characterized in that at least one of the partial optical waveguides has on an upper side an optical filter for filtering stray light that is incident in the optical waveguide from a stray light source , with the filter having at least one narrowband transmission band that is adapted to a spectrum of a light source of the display device.
Inkjet printing module capable of being picked up by the arm of a robot via a quick-coupling mechanical interface, said module including: - a print head ; - an ink reservoir capable of supplying ink to said print head ; - compressed-gas supply means capable of supplying compressed gas to said print head ; - a mechanical interface capable of engaging removably with a complementary mechanical interface of a robot arm; - an electronic interface capable of engaging removably with an electronic interface of said robot arm in order to transfer data between said module and the robot; and - at least one fluid interface placed in fluid communication with the compressed-gas supply means and/or with the ink reservoir. - a print head ; - an ink reservoir capable of supplying ink to said print head ; - compressed-gas supply means capable of supplying compressed gas to said print head ; - a mechanical interface capable of engaging removably with a complementary mechanical interface of a robot arm; - an electronic interface capable of engaging removably with an electronic interface of said robot arm in order to transfer data between said module and the robot; and - at least one fluid interface placed in fluid communication with the compressed-gas supply means and/or with the ink reservoir.
A method for providing a drone user equipment, UE, indication, comprising: connecting to a wireless network by a UE having flight capabilities ; and the method being characterized by comprising: transmitting , by the UE, a drone UE indicator to the wireless network to indicate that the UE is an unmanned aircraft system having the flight capabilities, wherein the drone UE indicator is transmitted to the wireless network as part of a Radio Resource Control, RRC, connection request, during a non-access stratum, NAS, attach procedure, or using Medium Access Control, MAC, signaling during a Random Access Procedure, RACH, when establishing the connection to the wireless network. connecting to a wireless network by a UE having flight capabilities ; and the method being characterized by comprising: transmitting , by the UE, a drone UE indicator to the wireless network to indicate that the UE is an unmanned aircraft system having the flight capabilities, wherein the drone UE indicator is transmitted to the wireless network as part of a Radio Resource Control, RRC, connection request, during a non-access stratum, NAS, attach procedure, or using Medium Access Control, MAC, signaling during a Random Access Procedure, RACH, when establishing the connection to the wireless network.
Floor panel for forming a floor covering, wherein this floor panel comprises a composed substrate ; wherein said floor panel comprises coupling parts (5-6) on at least two opposite edges (3-4), which coupling parts (5-6) allow that two of such floor panels can be coupled to each other by means of a downward movement (M) of one floor panel in respect to the other floor panel ; wherein these coupling parts (5-6), in the coupled condition of two of such floor panels , form a first locking system which effects a locking in a first direction (H) in the plane of the floor panels and perpendicular to said edges (3-4), as well as form a second locking system which effects a locking in a second direction (V) transverse to the plane of the floor panels ; wherein the first locking system is formed at least of an upward-directed lower hook-shaped part which is situated on one of said two opposite edges (3-4), as well as a downward-directed upper hook-shaped part which is situated on the other, opposite edge of said two opposite edges, which hook-shaped parts (7-8) can be engaged behind each other by means of said downward movement (M); wherein the lower hook-shaped part consists of a lip with an upward-directed locking element , whereas the upper hook-shaped part consists of a lip with a downward-directed locking element ; wherein the second locking system comprises locking parts (13-14), which respectively are situated in the proximity of the proximal extremity of the lower hook-shaped part and the distal extremity of the upper hook-shaped part ; wherein said composed substrate consists at least of two substrate layers (15-16), to wit a synthetic material-based first substrate layer and a second substrate layer situated directly there above, which second substrate layer has a thickness (D1) of at least 0.5 mm, preferably at least 1 mm; characterized in that the first substrate layer constitutes more than half of the thickness of the floor panel; wherein the first substrate layer is foamed and preferably is of the closed cell-type and still more preferably of the so-called hard foam-type, and preferably the second substrate layer is not foamed or is less foamed than the first substrate layer ; wherein the first substrate layer comprises polyvinyl chloride and is of the rigid type and thus comprises no plasticizers or plasticizers in an amount of less than 20 phr; wherein the second substrate layer comprises polyvinyl chloride and plasticizers in an amount of more than 15 phr; wherein said locking parts (13-14) are provided with locking surfaces (17-18), which, there, where they cooperate in the coupled condition of two of such floor panels , define a tangent line (R) which is horizontal or does not deviate more than 50 degrees from the horizontal; wherein the locking surfaces are situated in the first substrate layer and/or in the second substrate layer ; and wherein said locking surfaces (17-18) are situated closer to the upper side of the first substrate layer than to the lower side of the first substrate layer , irrespective whether these are situated in or not in said second substrate layer .
Geosynthetic Reactive Clay (GRC) product for capping/containment of contaminated soil, having a thickness of 8-12 mm, characterized in that it is made up of a thermally modified attapulgite-clay core, which consists of a granular, hydraulically permeable, attapulgite clay or attapulgite/saponite clay, thermally modified as main active material, sandwiched between a lower woven and an upper non-woven geotextile and presents a hydraulic "active"-filter function, i.e. it allows unobstructed passage of water while it geochemically functions as a barrier for a wide range of soluble contaminants, wherein the main active material has particle sizes between 1.19 mm - 0.250 mm.
Washing device for elongate profile sections which have been cut to length, comprising a drum which is rotatable about a horizontally oriented axis of rotation , said drum having a plurality of receiving areas which are arranged next to one another along the circumference of the drum and into which elongate profile sections oriented along the longitudinal direction (L) can be inserted, comprising a receiving opening for the elongate profile sections and a discharge opening for the elongate profile sections and an upper transport path (To) for the elongate profile sections running between the receiving opening and the discharge opening wherein the upper transport path (To) passes the axis of rotation on the side thereof facing away from the ground, characterized in that an opening width of the discharge opening is adjustable in the circumferential direction and a radially outer side of the drum is covered by a movable cover device which is rotatable about the axis of rotation , and wherein the position of a longitudinal edge of the cover device defines the height of the discharge opening .
A fusion protein, comprising a polypeptide of genus X1-X2-X3-X4-X5, wherein: one of X1 and X5 comprises a fluorescence resonance energy transfer (FRET) acceptor polypeptide having an acceptor excitation wavelength and FRET emission wavelength, and the other of X1 and X5 comprises a FRET donor polypeptide having a donor excitation wavelength and a donor emission wavelength X2 and X4 independently are amino acid linkers; and wherein X3 comprises an ATP binding protein; wherein binding of ATP by the ATP binding protein causes interaction of the FRET acceptor polypeptide and the FRET donor polypeptide, and wherein: i) (A) X2 is an amino acid linker of 1 amino acid in length or is absent and/or X2 is an amino acid linker selected from the group consisting of A, S, V, T and TS, and (B) X4 is an amino acid linker of between 1-4 amino acids in length and/or X4 is an amino acid linker selected from the group consisting of AT, A, SA, GA, FF, FL, S, and GTSG (SEQ ID NO: 21), ii) X2 and X4 are both A, iii) X2 is S and X4 is A, iv) X2 is absent and X4 is FF, v) X2 is V and X4 is FL, vi) X2 is T and X4 is GTSG (SEQ ID NO: 21), or vii) X2 is S and X4 is SA. one of X1 and X5 comprises a fluorescence resonance energy transfer (FRET) acceptor polypeptide having an acceptor excitation wavelength and FRET emission wavelength, and the other of X1 and X5 comprises a FRET donor polypeptide having a donor excitation wavelength and a donor emission wavelength X2 and X4 independently are amino acid linkers; and wherein X3 comprises an ATP binding protein; wherein binding of ATP by the ATP binding protein causes interaction of the FRET acceptor polypeptide and the FRET donor polypeptide, and wherein: i) (A) X2 is an amino acid linker of 1 amino acid in length or is absent and/or X2 is an amino acid linker selected from the group consisting of A, S, V, T and TS, and (B) X4 is an amino acid linker of between 1-4 amino acids in length and/or X4 is an amino acid linker selected from the group consisting of AT, A, SA, GA, FF, FL, S, and GTSG (SEQ ID NO: 21), ii) X2 and X4 are both A, iii) X2 is S and X4 is A, iv) X2 is absent and X4 is FF, v) X2 is V and X4 is FL, vi) X2 is T and X4 is GTSG (SEQ ID NO: 21), or vii) X2 is S and X4 is SA. i) (A) X2 is an amino acid linker of 1 amino acid in length or is absent and/or X2 is an amino acid linker selected from the group consisting of A, S, V, T and TS, and (B) X4 is an amino acid linker of between 1-4 amino acids in length and/or X4 is an amino acid linker selected from the group consisting of AT, A, SA, GA, FF, FL, S, and GTSG (SEQ ID NO: 21), (A) X2 is an amino acid linker of 1 amino acid in length or is absent and/or X2 is an amino acid linker selected from the group consisting of A, S, V, T and TS, and (B) X4 is an amino acid linker of between 1-4 amino acids in length and/or X4 is an amino acid linker selected from the group consisting of AT, A, SA, GA, FF, FL, S, and GTSG (SEQ ID NO: 21), ii) X2 and X4 are both A, iii) X2 is S and X4 is A, iv) X2 is absent and X4 is FF, v) X2 is V and X4 is FL, vi) X2 is T and X4 is GTSG (SEQ ID NO: 21), or vii) X2 is S and X4 is SA.
A method for providing a substrate coating, comprising: transferring a substrate to an enclosed ink jet printing system ; printing organic material over a deposition region of the substrate using the enclosed ink jet printing system , the deposition region comprising at least a portion of a light-emitting diode device on the substrate ; transferring the substrate with the organic material deposited thereon to an enclosed curing module (1200/1200a/1200b/1300/1300a/1300b/2302); supporting the substrate in the enclosed curing module (1200/1200a/1200b/1300/1300a/1300b/2302) using a pressurized gas cushion distributed between the substrate and a substrate support apparatus; and while supporting the substrate in the enclosed curing module (1200/1200a/1200b/1300/1300a/1300b/2302), treating the organic material deposited on the substrate using the enclosed curing module (1200/1200a/1200b/1300/1300a/1300b/2302) to form an organic film layer. transferring a substrate to an enclosed ink jet printing system ; printing organic material over a deposition region of the substrate using the enclosed ink jet printing system , the deposition region comprising at least a portion of a light-emitting diode device on the substrate ; transferring the substrate with the organic material deposited thereon to an enclosed curing module (1200/1200a/1200b/1300/1300a/1300b/2302); supporting the substrate in the enclosed curing module (1200/1200a/1200b/1300/1300a/1300b/2302) using a pressurized gas cushion distributed between the substrate and a substrate support apparatus; and while supporting the substrate in the enclosed curing module (1200/1200a/1200b/1300/1300a/1300b/2302), treating the organic material deposited on the substrate using the enclosed curing module (1200/1200a/1200b/1300/1300a/1300b/2302) to form an organic film layer.
A pharmaceutical composition for use in alleviating or treating pain comprising two or more selected from the group consisting of a gene encoding glutamate decarboxylase (GAD), a gene encoding interleukin-10 (IL-10), and a gene encoding a glial cell-derived neurotrophic factor (GDNF).
A compound having the formula (I): as a racemic mixture, or diastereomer thereof.