mhurhangee/ep-ind-claims huggingface dataset:
A method of stabilizing fruit remains after pressing, of which the rest of the fruits after pressing will be stored under a controlled temperature to prevent the formation of germs and molds, including aflaloxins. Then any agglomerates or lumps will be calibrated. Characterized with the following steps: a) Stabilization step 1: Heating the leftover fruit at a temperature between 150 °C and 200 °C for a period of 30 to 60 minutes. With this procedure sterility can be achieved by destroying all microbes, fungal spores or germs. b) Stabilization step 2: Aeration of the remaining fruit with dry air and filtered at a temperature between -15 °C and -50 °C for a period of 15 to 60 seconds. During this time the last moisture vapors are removed in order to prepare the next step. c) Stabilization step 3: Refrigeration of the remaining fruit with dry, filtered and iced air at a temperature between -15 °C and -50 °C for a period of 1 and 15 minutes. a) Stabilization step 1: Heating the leftover fruit at a temperature between 150 °C and 200 °C for a period of 30 to 60 minutes. With this procedure sterility can be achieved by destroying all microbes, fungal spores or germs. b) Stabilization step 2: Aeration of the remaining fruit with dry air and filtered at a temperature between -15 °C and -50 °C for a period of 15 to 60 seconds. During this time the last moisture vapors are removed in order to prepare the next step. c) Stabilization step 3: Refrigeration of the remaining fruit with dry, filtered and iced air at a temperature between -15 °C and -50 °C for a period of 1 and 15 minutes.
A unicycle comprising a wheel portion, an electrical portion, a first shock absorber, a second shock absorber, a frame portion and a casing, the first shock absorber comprising a cylinder corresponding to the first shock absorber, a rod corresponding to the first shock absorber, and a first piston, the second shock absorber comprising a cylinder corresponding to the second shock absorber, a rod corresponding to the second shock absorber, and a second piston, each of the cylinders being provided with a cavity plugged from both ends thereof, the first piston being installed in the cylinder cavity of the first shock absorber, and the second piston being installed in the cylinder cavity of the second shock absorber, the corresponding rod with one end thereof being connected to the first piston, and the other corresponding rod with one end thereof being connected to the second piston, the other end of each of the rods being disposed outside the cylinder corresponding thereto, characterized by the wheel portion comprising an axis, a hub, a ring, a rim with permanent magnets, a tire, two covers, and two bearings, the electrical portion comprising a control unit, a control panel, a battery, electromagnets, a gyroscopic sensor and a position sensor, the frame portion comprising a frame comprising a crossbar and two side portions, and two footrests, wherein the hub is attached onto the axis and rigidly connected to the ring, which is installed inside the rim with a gap therefrom, the axis, hub, ring, rim and bearings are installed coaxially, and the tire is disposed on the rim, the covers are attached to the axis from opposite sides of the hub by means of the two bearings and are attached to the rim, wherein the control unit is electrically connected to the control panel, electromagnets, battery, gyroscopic sensor and position sensor, the electromagnets are disposed on the ring, the gyroscopic sensor is disposed stationary relative to the casing, and the position sensor is attached to the ring and configured to determine the position of the rim relative to the ring, wherein a portion of the cylinder cavity of the first shock absorber, disposed on the side of the rod thereof, is filled with shock absorbing gas, and a portion of the cylinder cavity of the second shock absorber, disposed on the side of the rod thereof, is filled with shock absorbing liquid, wherein the second piston is configured to pass the flow of shock absorbing liquid, each of the cylinders is attached rigidly relative to the axis, and each rod is connected to the frame portion, the side portions are disposed on opposite sides of the wheel portion and from one side thereof are connected to each other by the crossbar, and from the other side, each of them is connected to the corresponding footrest thereof, wherein the casing is rigidly attached to the axis and partially encompasses the wheel portion.
A method comprising: configuring a hub router acting as a hub in a hub-and-spoke network to utilize a separate instance (14A, 14B) of a multi-instance version of a link state protocol to communicate with each of a plurality of spoke routers (10A, 10B) of the hub-and-spoke network, each separate instance of the multi-instance version of the link state protocol corresponding to a different routing domain and including the hub router and a different one of the plurality of spoke routers; identifying, by the hub router, to which of the separate instances each of the link state advertisements from each of the plurality of spoke routers corresponds based on a source router identifier and a destination router identifier specified by each of the link state advertisements and not based on a separate instance identifier; and processing, by the hub router, to aggregate topology changes advertised via link state advertisements from the separate instances of the multi-instance version of the link state protocol to update a portion of a representation of a topology of the hub-and-spoke network corresponding to the separate instances identified by the source router identifier and the destination router identifier specified by each of the link state advertisements on behalf of the plurality of spoke routers. configuring a hub router acting as a hub in a hub-and-spoke network to utilize a separate instance (14A, 14B) of a multi-instance version of a link state protocol to communicate with each of a plurality of spoke routers (10A, 10B) of the hub-and-spoke network, each separate instance of the multi-instance version of the link state protocol corresponding to a different routing domain and including the hub router and a different one of the plurality of spoke routers; identifying, by the hub router, to which of the separate instances each of the link state advertisements from each of the plurality of spoke routers corresponds based on a source router identifier and a destination router identifier specified by each of the link state advertisements and not based on a separate instance identifier; and processing, by the hub router, to aggregate topology changes advertised via link state advertisements from the separate instances of the multi-instance version of the link state protocol to update a portion of a representation of a topology of the hub-and-spoke network corresponding to the separate instances identified by the source router identifier and the destination router identifier specified by each of the link state advertisements on behalf of the plurality of spoke routers.
A filter device with a filter housing pot and a filter housing having a filter housing cover, wherein the filter housing pot is formed from metal, characterized in, that the filter housing cover has a metallic component in the form of an aperture mask with at least one through-opening (6, 6') as well as a component formed from plastic in the form of at least one port (5, 5') made from plastic for feeding/emptying the filter device, which port is sealed with respect to the filter housing pot and/or with respect to the filter housing cover and projects through the through-opening (6, 6') of the filter housing cover.
A feed network for a multi-beam antenna, comprising: a. a first beam port that is coupled to a reflection cancellation circuit via a first beam downtilt control means; b. a second beam port that is coupled to the reflection cancellation circuit via a second beam downtilt control means; c. a beam-forming network, coupled to the first beam port and to the second beam port, wherein the beam-forming network is further coupled to an array of radiating elements; and d. the reflection cancellation circuit coupled to the first beam port, the second beam port and the beam-forming network, the reflection cancellation circuit configured to extract a portion of a RF signal on the first beam port, add phase delay, and inject the extracted, delayed signal from the first beam port onto the second beam port, and to extract a portion of a RF signal on the second beam port, add phase shift, and inject the extracted, delayed signal from the second beam port onto the first beam port. a. a first beam port that is coupled to a reflection cancellation circuit via a first beam downtilt control means; b. a second beam port that is coupled to the reflection cancellation circuit via a second beam downtilt control means; c. a beam-forming network, coupled to the first beam port and to the second beam port, wherein the beam-forming network is further coupled to an array of radiating elements; and d. the reflection cancellation circuit coupled to the first beam port, the second beam port and the beam-forming network, the reflection cancellation circuit configured to extract a portion of a RF signal on the first beam port, add phase delay, and inject the extracted, delayed signal from the first beam port onto the second beam port, and to extract a portion of a RF signal on the second beam port, add phase shift, and inject the extracted, delayed signal from the second beam port onto the first beam port.
Method for determining a common driving strategy for at least two vehicles in a line, wherein at least one parameter of the first vehicle and at least one parameter of the second vehicle are taken into account when determining the common driving strategy, wherein the driving strategy is determined in a manner distributed among the vehicles in the line or among at least one vehicle and an external computing unit, in particular is calculated in a parallel manner, and wherein the determined driving strategy is made available to the vehicles in the line.
A system for trigeminal nerve stimulation for treatment of a medical disorder including a pulse generator and an implantable electrode assembly in electrical communication with the pulse generator, characterized in that the electrode assembly comprises a first electrode configured for subcutaneous placement at a first region of a patient's forehead by attaching to connective tissue below the epidermis, with the first electrode including a first contact configured to be in contact with a supratrochlear nerve, and the first electrode including a second contact configured to be in contact with an adjacent supraorbital nerve, the first electrode thereby stimulating the supraorbital nerve and the adjacent supratrochlear nerve at the patient's forehead to modulate at least one body system by increasing activation of a medial prefrontal cortex, a superior frontal gyrus, a lateral frontal cortex, and a middle temporal gyrus and/or inhibiting a superior parietal cortex and a temporal-occipital cortex to treat a medical disorder selected from the group consisting of a cardiac-related disorder, fatigue, tinnitus, obesity, diabetes, dyslipidemia, metabolic syndrome, obstructive sleep apnea, arthritis, cachexia, anorexia, inflammation, asthma, inflammatory bowel disease, atopic dermatitis, sepsis, hepatitis, a disorder of regulation of breathing, a disorder of gastrointestinal function, gastroesophageal reflux, diarrhea, constipation, dysphagia, gastroparesis, a functional bowel syndrome, post-operative ileus, dyspepsia, chemotherapy-related nausea, chemotherapy-related emesis, a disorder of autonomic regulation of menopausal hot flashes, a disorder of regulation of hemostasis, insomnia, attention deficit disorder, attention deficit hyperactivity disorder (ADHD), autism, autism spectrum disorders, a substance use disorder, a behavioral addiction, an eating disorder, obsessive compulsive disorder, a psychotic disorder, and a dementing disorder.
Reforming process for synthesis gas production from a mixture of hydrocarbons of the type comprising a first step, or pre-reforming step, in which a process mixture, comprising said mixture of hydrocarbons and steam, is subjected to a preliminary catalytic conversion reaction, obtaining a partial conversion product comprising hydrogen, carbon oxides and hydrocarbons, and a second step, or main reforming step, in which said partial conversion product is subjected to a conversion completion reaction, obtaining said synthesis gas, characterized in that said pre-reforming step is carried out in pseudo-isothermal conditions, by keeping the temperature of the catalyst used in the pre-reforming step substantially constant, wherein at least one part of said partial conversion product obtained in said pre-reforming step is subjected to heating and is used as operating fluid of indirect heat exchange in said pre-reforming step.
A copolymer comprising (i) a plurality of ethylenic moieties A having a structure according to the following formula: wherein R 2 and R 3 independently represent hydrogen, a halogen or an optionally substituted linear, branched or cyclic alk(en)yl group, or an optionally substituted aromatic or heteroaromatic group, and (ii) a plurality of acetal moieties B having a structure according to the following formula: wherein L is a divalent linking group; x= 0 or 1; R 1 represents an aromatic or heteroaromatic group including at least one hydroxyl group and optionally one or more additional substituent(s), and at least one electron withdrawing group in ortho or para position relative to the at least one hydroxyl group. L is a divalent linking group; x= 0 or 1; R 1 represents an aromatic or heteroaromatic group including at least one hydroxyl group and optionally one or more additional substituent(s), and at least one electron withdrawing group in ortho or para position relative to the at least one hydroxyl group.
A process for monitoring the polymerization of ethylene or ethylene and comonomers in the presence of free-radical polymerization initiator at pressures in the range of from 160 MPa to 350 MPa and temperatures in the range of from 100°C to 350°C in a tubular reactor with one or more reaction zones, which is equipped with cooling jackets for cooling the tubular reactor with a cooling medium, comprising the steps of a) measuring as process parameters the temperature profile and the pressure of the reaction medium and the flow and temperature profile of the cooling medium along the reactor, b) monitoring the feeds of ethylene, if present comonomer, free-radical polymerization initiator and chain-transfer agent to all reaction zones, c) calculating, based on the measured process parameters and on a model for the polymerization process, concentrations for free-radical polymerization initiator, chain-transfer agent, ethylene and, if present, comonomers at at least so many positions along the reactor, that at least one calculation is carried out all 10 s for a volume unit flowing through the reactor, d) calculating, based on the measured process parameters and the calculated concentrations, the cooling power, the generation of heat, and the concentration of radicals, e) calculating, based on the calculated data of the cooling power, of the generation of heat, and of the concentration of radicals, the potential of a thermal runaway of the reaction mixture at the positions along the reactor which have the highest temperatures, and f) outputting an alarm signal if the calculated value for the potential of a thermal runaway exceeds a predefined value. a) measuring as process parameters the temperature profile and the pressure of the reaction medium and the flow and temperature profile of the cooling medium along the reactor, b) monitoring the feeds of ethylene, if present comonomer, free-radical polymerization initiator and chain-transfer agent to all reaction zones, c) calculating, based on the measured process parameters and on a model for the polymerization process, concentrations for free-radical polymerization initiator, chain-transfer agent, ethylene and, if present, comonomers at at least so many positions along the reactor, that at least one calculation is carried out all 10 s for a volume unit flowing through the reactor, d) calculating, based on the measured process parameters and the calculated concentrations, the cooling power, the generation of heat, and the concentration of radicals, e) calculating, based on the calculated data of the cooling power, of the generation of heat, and of the concentration of radicals, the potential of a thermal runaway of the reaction mixture at the positions along the reactor which have the highest temperatures, and f) outputting an alarm signal if the calculated value for the potential of a thermal runaway exceeds a predefined value.
Vehicle seat (1; 101) with a seat part (2; 102), a backrest, and a supporting structure (7; 107) for supporting the seat part (2; 102) and the backrest, in which the supporting structure (7; 107) can be fastened to a body component and in which forces acting on the vehicle seat (1; 101) can be introduced into the body component by means of the supporting structure (7; 107), characterised in that the supporting structure (7; 107) comprises an asymmetrical frame (18; 118) having main strengthening struts that extend substantially vertically (19, 20, 21; 119, 120, 121), in which frame the main strengthening struts (19, 20, 21; 119, 120, 121) are brought together in the junction region (16; 116) on the upper side (15; 115) of the supporting structure (7; 107) and, on the lower side of the supporting structure (7; 107), a first (19; 119) of the main strengthening struts (19, 20, 21; 119, 120, 121) is arranged on the junction region side as a compression strut and is guided towards the front as far as a front supporting structure foot (41; 141), a second (20; 120) of the main strengthening struts (19, 20, 21; 119, 120, 121) is arranged on the junction region side as a tension strut and is guided towards the rear as far as a first rear supporting structure foot (42; 142), and a third (21; 121) of the main strengthening struts (19, 20, 21; 119, 120, 121) is arranged as a tension-compression strut guided towards the rear as far as a further rear supporting structure foot (45; 145).
Metal-based shelf configured to equip a device for presenting items of merchandise, for example particularly a gondola, comprising an upper panel extending substantially longitudinally and forming an outside surface for exposing items of merchandise as well as an inside surface which is an opposite surface to the outside surface, a front face and a back face which is an opposite face to the front face each extending transversely from the upper panel and within the length of the shelf, a first side and a second side which is an opposite side to the first side, each extending transversely from the upper panel and within the depth of the shelf, the first side has at least two walls (70, 72) folded onto themselves and forming a first side fold, the second side having at least two walls (60, 62) folded onto themselves and forming a second side fold, characterized in that the shelf further comprises at least one holding member forming a tab, provided in at least one of the first and second side folds, and oriented inwardly of the shelf; said at least one tab being configured to enable the holding in position of the shelf on the device for presenting items of merchandise.
Exoskeleton system comprising: - a first exoskeleton unit adapted to support a first body part; - a second exoskeleton unit adapted to support a second body part; and - a control device; wherein the control device is adapted to control the first exoskeleton unit and/or the second exoskeleton unit based on a control model, wherein the control model is based on a multibody system which models - the first exoskeleton unit; - the second exoskeleton unit; and - the first and/or second body part (21, 22); and wherein the first exoskeleton unit and the second exoskeleton unit are mechanically decoupled from each other; wherein the control device is further adapted to control the first and/or second exoskeleton unit (11, 12) to override the user (2, 3) of the respective exoskeleton unit (11, 12), and to control the first and/or second exoskeleton unit such that the multibody system is transitioned into a safe state. - a first exoskeleton unit adapted to support a first body part; - a second exoskeleton unit adapted to support a second body part; and - a control device; - the first exoskeleton unit; - the second exoskeleton unit; and - the first and/or second body part (21, 22); and
Drill head for producing a substantially vertical borehole in the ground, in particular for producing a shaft, having a body which is able to be connected to a rotary drive of a drilling device, having drilling tools which for loosening the ground at a face of the borehole are disposed on the body, having a discharge device which for discharging the loosened ground on the face is able to be connected to a suction unit for suctioning a conveying medium by way of a conveying line, wherein the discharge device has an opening region which is disposed on the body and has at least one opening in the region of the drilling tools at the face, wherein the at least one opening of the opening region is connected to a suction box which as a component part of the discharge device has, at an end opposite the opening, a connector opening for connecting to the conveying line, and wherein at least one element which exerts an acceleration on the loosened ground in the region of the suction box is provided, by way of which acceleration the ground loosened by the drilling tools is able to be moved into the opening region and/or through the opening into the suction box, wherein the loosened ground is acquired by the conveying medium in the opening region and/or in the suction box and is able to be discharged by way of the conveying line by the suction unit, characterized in that the spacing of the opening region in relation to the face is adjustable, in that the adjustment of the spacing takes place by vertically moving the suction box and/or by pivoting the suction box about a pivot point, and in that a drive is provided for moving or pivoting.
A process for the production of chlorinated propanes comprising catalyzing the addition of at least two chlorine atoms to a propane with a catalyst system comprising at least one Lewis acid and one or more nonmetallic iodides or at least one Lewis acid and one or more nonmetallic iodides and from 1 ppm to 5000 ppm elemental iodine; wherein the nonmetallic iodide comprises iodobenzene, chlorinated iodobenzene, phenylchloroiodonium chloride, iodinated polymers, iodine trihalides, or combinations of any number of these.
A method of detecting a TRIO:TERT fusion protein or a TRIO:TERT gene fusion in a biological sample, said method comprising: (a) contacting a biological sample from a mammal with a reagent selected from: (i) an antibody that binds to the TRIO:TERT fusion protein, but does not bind to wild-type TERT or TRIO; or (ii) an oligonucleotide that hybridizes to the fusion junction of the TRIO:TERT gene fusion; and (b) detecting binding between the TRIO:TERT fusion protein or the TRIO:TERT gene fusion and the reagent. (a) contacting a biological sample from a mammal with a reagent selected from: (i) an antibody that binds to the TRIO:TERT fusion protein, but does not bind to wild-type TERT or TRIO; or (ii) an oligonucleotide that hybridizes to the fusion junction of the TRIO:TERT gene fusion; and (i) an antibody that binds to the TRIO:TERT fusion protein, but does not bind to wild-type TERT or TRIO; or (ii) an oligonucleotide that hybridizes to the fusion junction of the TRIO:TERT gene fusion; and (b) detecting binding between the TRIO:TERT fusion protein or the TRIO:TERT gene fusion and the reagent.