mhurhangee/ep-ind-claims huggingface dataset:
A portable support system for a stage or a platform comprising: a portable support having a first end and a second end, the first end having a tapered portion, and the second end includes a footing structure; and a receiving member including a support cone configured to receive the tapered portion, the support cone having a tapered inner surface and a tapered outer surface, the inner surface and outer surface being engagable with mating tapered surfaces, the receiving member being capable of attachment to one or both of a frame and a panel for use as a platform, wherein: - the receiving member has a casing, - the outer surface and the casing forms a cavity capable of receiving a corresponding tapered footing structure and - at least one of the mating tapered surfaces being the tapered portion, whereby the portable support further includes a latching feature extending through the tapered portion, the latching feature being actuatable to permit selective engagement and disengagement with a receiving member, a portable support having a first end and a second end, the first end having a tapered portion, and the second end includes a footing structure; and a receiving member including a support cone configured to receive the tapered portion, the support cone having a tapered inner surface and a tapered outer surface, the inner surface and outer surface being engagable with mating tapered surfaces, the receiving member being capable of attachment to one or both of a frame and a panel for use as a platform, wherein: - the receiving member has a casing, - the outer surface and the casing forms a cavity capable of receiving a corresponding tapered footing structure and - at least one of the mating tapered surfaces being the tapered portion, whereby the portable support further includes a latching feature extending through the tapered portion, the latching feature being actuatable to permit selective engagement and disengagement with a receiving member, - the receiving member has a casing, - the outer surface and the casing forms a cavity capable of receiving a corresponding tapered footing structure and - at least one of the mating tapered surfaces being the tapered portion, whereby the portable support further includes a latching feature extending through the tapered portion, the latching feature being actuatable to permit selective engagement and disengagement with a receiving member,
A differential pressure sensor having an axis of extension and comprising: - a containment body defining a first and a second cavity (3, 4), the containment body comprising a separation wall between the first and the second cavity; - a piston housed slidably in the first cavity in such a way as to separate the latter into a first and a second chamber (8, 9), each chamber being in fluid communication with the outside of the containment body, the piston comprising a magnet mounted on a first axial end of the piston proximal to the separation wall; - a magnetic sensor housed in the second cavity near the separation wall, the magnetic sensor being designed to sense the axial distance of the magnet from the separation wall and to generate a signal representing said distance; wherein the differential pressure sensor also comprises a positioning system housed in the second cavity and having a first axial end proximal to the separation wall, wherein at least one portion of the first axial end supports the magnetic sensor and is elastically yieldable in an axial direction and away from the separation wall and wherein the positioning system is structured in such a way that when the positioning system is moved towards the separation wall the magnetic sensor contacts the latter before the positioning system reaches a relative axial stroke end inside the second cavity, the stroke end being reached thanks to the above-mentioned elastic yielding. - a containment body defining a first and a second cavity (3, 4), the containment body comprising a separation wall between the first and the second cavity; - a piston housed slidably in the first cavity in such a way as to separate the latter into a first and a second chamber (8, 9), each chamber being in fluid communication with the outside of the containment body, the piston comprising a magnet mounted on a first axial end of the piston proximal to the separation wall; - a magnetic sensor housed in the second cavity near the separation wall, the magnetic sensor being designed to sense the axial distance of the magnet from the separation wall and to generate a signal representing said distance;
Use of (a) an amino-based deposit control additive; and (b) a complex ester obtainable by an esterification reaction between at least one aliphatic linear or branched C2 to C12 dicarboxylic acid, at least one aliphatic linear or branched polyhydroxy alcohol with 3 to 6 hydroxy groups and as a chain stopping agent at least one aliphatic linear or branched C1-C30 monocarboxylic acid in case of an excess of component, or at least one aliphatic linear or branched monobasic C1-C30 alcohol in case of an excess of component; in a gasoline fuel composition for the purpose of providing a synergistic reduction in engine wear in a spark ignition internal combustion engine fuelled with said gasoline fuel composition; wherein the amino-based deposit control additive is an aliphatic hydrocarbyl-substituted amine having at least one basic nitrogen atom wherein the hydrocarbyl group has a number average molecular weight of about 700 to 3,000; wherein the at least one complex ester is present in the gasoline fuel composition in an amount from 10ppmw to 5000ppmw, by weight of the gasoline fuel composition; wherein the amino-based deposit control additive is present at a level from 50ppm to 2000ppm, by weight of the gasoline fuel composition; and wherein the weight ratio of the amino-based deposit control additive to the complex ester is in the range from 10:1 to 1:1. in a gasoline fuel composition for the purpose of providing a synergistic reduction in engine wear in a spark ignition internal combustion engine fuelled with said gasoline fuel composition; wherein the amino-based deposit control additive is an aliphatic hydrocarbyl-substituted amine having at least one basic nitrogen atom wherein the hydrocarbyl group has a number average molecular weight of about 700 to 3,000; wherein the at least one complex ester is present in the gasoline fuel composition in an amount from 10ppmw to 5000ppmw, by weight of the gasoline fuel composition; wherein the amino-based deposit control additive is present at a level from 50ppm to 2000ppm, by weight of the gasoline fuel composition; and wherein the weight ratio of the amino-based deposit control additive to the complex ester is in the range from 10:1 to 1:1.
Burner seal for a gas turbine having an essentially tubular main body which has an annular inflow lip at an inflow side and a funnel at its outflow side, wherein an internal diameter of the inflow side is designed to be larger than an internal diameter of a sealing face arranged axially before the funnel, characterized in that cooling ducts are formed in the main body distributed around the periphery, wherein the cooling ducts each have an inlet hole, and wherein the cooling ducts are in each case formed in the main body in the region of the sealing face and of the funnel and in each case open out in an outlet hole in an end region of the funnel.
A system for measurement with at least one measurement unit comprising an isolator nearest a conductor and outside the isolator on the other side of the conductor a reflector is provided, characterized by comprising: at least one signal conductor, and the at least one measurement unit wherein said measurement unit comprises means (22, 23, 24, 25 and 26) for changing an impedance mismatch in the form of a reflector, with a change in temperature, wherein the change in temperature changes at least one of size of the reflector and distance between the reflector and the conductor, giving rise to a change in impedance mismatch which in turn changes degree of reflection. at least one signal conductor, and the at least one measurement unit wherein said measurement unit comprises means (22, 23, 24, 25 and 26) for changing an impedance mismatch in the form of a reflector, with a change in temperature, wherein the change in temperature changes at least one of size of the reflector and distance between the reflector and the conductor, giving rise to a change in impedance mismatch which in turn changes degree of reflection.
Image processing apparatus for determining a focused output image (O AF ( x i)) in an autofocus system, in particular a passive autofocus system, wherein the image processing apparatus is configured - to retrieve a set of input images ( I ( x i)); - to compute at least one baseline estimate ( f ( x i)) for at least one input image of the set of input images, the at least one baseline estimate representing image structures in the at least one input image, the image structures having a length scale larger than a predetermined image feature length scale ( fl j); characterized in that the image processing apparatus is further configured - to compute a set of output images ( O ( x i)) from the set of the input images ( I ( x i)) and the computed baseline estimate ( f ( x i)), wherein the computed baseline estimate ( f ( x i)) is subtracted from the input image ( I ( x i)) of the set of input images ( I ( x i)), for which the baseline estimate ( f(x i)) has been computed as a fit to said input image ( I ( x i)) and represents an out-of-focus component having low spatial frequency in said input image ( I ( x i)); - to determine one output image of the set of output images as the focused output image by using a focus function. - to retrieve a set of input images ( I ( x i)); - to compute at least one baseline estimate ( f ( x i)) for at least one input image of the set of input images, the at least one baseline estimate representing image structures in the at least one input image, the image structures having a length scale larger than a predetermined image feature length scale ( fl j); characterized in that the image processing apparatus is further configured - to compute a set of output images ( O ( x i)) from the set of the input images ( I ( x i)) and the computed baseline estimate ( f ( x i)), wherein the computed baseline estimate ( f ( x i)) is subtracted from the input image ( I ( x i)) of the set of input images ( I ( x i)), for which the baseline estimate ( f(x i)) has been computed as a fit to said input image ( I ( x i)) and represents an out-of-focus component having low spatial frequency in said input image ( I ( x i)); - to determine one output image of the set of output images as the focused output image by using a focus function.
Vitamin B6 for use in the prevention of obesity, excessive fat accumulation or obesity, excessive fat accumulation and metabolic disorders associated with either of the foregoing, in the offspring of a mother wherein, the vitamin B6 is to be administered to said mother before pregnancy, during pregnancy and/or during lactation and wherein, the metabolic disorders associated with obesity and/or excessive fat accumulation are selected from the group consisting of cardiovascular diseases, insulin resistance, type 2 diabetes, hypertension, sleep apnea, respiratory problems,dyslipidemia, cancers, stroke, liver and gallbladder disease, osteoarthritis, and gynecological problems.
A process for producing a cellulose ether acetate succinate comprising the step of reacting a cellulose ether with acetic anhydride and succinic anhydride in the presence of an aliphatic carboxylic acid and with a depolymerizing agent, wherein the cellulose ether has an initial viscosity of at least 50 mPa·s, measured as a 2 weight-% solution in water at 20 °C, the depolymerizing agent is an inorganic acid or an oxidizing agent different from oxygen and the reaction of the cellulose ether with acetic anhydride, succinic anhydride and the depolymerizing agent is conducted simultaneously or in sequence in one reaction device.
Process for producing a biotechnological product, said process comprising co-cultivation of propionibacterium and a yeast cell in a cultivation medium, wherein said yeast cell is capable of growing in a stationary-phase supernatant of a propionibacterium cultivation; wherein the stationary-phase supernatant of a propionibacterium cultivation is obtained by preparing a first-stage propionibacterium seed culture by transferring 100 μL of Propionibacterium freudenreichii ATCC 6207 stock culture obtained from the culture collection to 50 mL of medium P1 according to Table 1 and incubating for 4 days at 35°C without aeration and without shaking; followed by transferring 15 mL of this first-stage seed culture to a 150 mL glass bottle filled with 135 mL of medium P2 according to Table 2 and incubating for 4 days at 35°C without aeration and without shaking to obtain a second-stage seed culture; followed by using 100 mL of the so obtained second-stage seed culture to inoculate a 1L working volume stirred tank bioreactor filled with 900 mL of medium P3 according to Table 3, with the cultivation parameters being: temperature: 35 ± 0.5 °C, pH: 6.5 ± 0.1 controlled with 15% NaOH or H 2 SO 4, agitation: 100 ± 10 RPM, sparging with CO 2: 0.1 ± 0.05 vvm, NH 4 + concentration: 400 ± 100 mg/L, adjusted every 12 hours using 15% (NH 4) 2 SO 4, pH 6.5, whereby the fermentation is run until the concentration of lactose is below 1g/L, and whereby at the end of the fermentation, the sum of the concentrations of acetic acid and propionic acid in the broth is preferably greater or equal to 20 g/L; followed by centrifuging 50 mL of the fermentation broth so obtained at 10000 g and transferring the supernatant to an Erlenmeyer flask and autoclaving same at 121°C for 20 minutes, whereby the autoclaved medium is the stationary-phase supernatant of a propionibacterium cultivation.
An epoxy resin, comprising a reaction product between: an epoxy compound having a mesogenic structure; and at least one selected from the group consisting of an aromatic hydroxycarboxylic acid having a carboxy group and a hydroxy group bonded to an aromatic ring and an aromatic dicarboxylic acid having two carboxy groups bonded to an aromatic group, wherein the epoxy resin has an epoxy equivalent weight of from 300 to 380 g/ eq, measured as indicated in the specification. an epoxy compound having a mesogenic structure; and at least one selected from the group consisting of an aromatic hydroxycarboxylic acid having a carboxy group and a hydroxy group bonded to an aromatic ring and an aromatic dicarboxylic acid having two carboxy groups bonded to an aromatic group, wherein the epoxy resin has an epoxy equivalent weight of from 300 to 380 g/ eq, measured as indicated in the specification.
A power reception side apparatus for receiving power by a resonance type non-contact power feeding method, said apparatus comprising: a power reception side resonance coil portion; a first power reception side shielding unit covering the power reception side resonance coil portion from outside with a good conductor; a second power reception side shielding unit covering a rectifier that rectifies alternating current generated in the power reception side resonance coil portion into direct current, from outside with a good conductor; a third power reception side shielding unit covering the first power reception side shielding unit and the second power reception side shielding unit; and an output line shielding unit covering, in output lines from the rectifier to a load device, the output line in a section from the third power reception side shielding unit to a housing of the load device, wherein the first power reception side shielding unit, the second power reception side shielding unit, the third power reception side shielding unit, and the output line shielding unit are connected at the same potential. a power reception side resonance coil portion; a first power reception side shielding unit covering the power reception side resonance coil portion from outside with a good conductor; a second power reception side shielding unit covering a rectifier that rectifies alternating current generated in the power reception side resonance coil portion into direct current, from outside with a good conductor; a third power reception side shielding unit covering the first power reception side shielding unit and the second power reception side shielding unit; and an output line shielding unit covering, in output lines from the rectifier to a load device, the output line in a section from the third power reception side shielding unit to a housing of the load device,
A steam generator with a combustion chamber, at least one flue gas duct and a boiler assembly, wherein each boiler assembly comprises a plurality of individual, identically designed steam boilers with a closed water circuit, each of said steam boilers having a pipe construction which comprises at least one riser pipe guided through the combustion chamber, a steam discharge pipe, a downpipe and a connecting pipe leading from the latter to the riser pipe, characterised in that each of these steam boilers is constituted by pipes up to and including a maximum of DN 32 in order to achieve a low risk-potential according to §5 of the Austrian Pressure Equipment Control Order (DGÜW-V), wherein the pressure content product (p x V) amounts to less than 350 [bar x l].
Method for mounting a laser diode on a heat sink, the laser diode having a housing with a flange extending at least over part of an outer circumferential surface of the housing, wherein the laser diode is placed in or on a mounting position of the heat sink, a holding element surrounding the laser diode at least in sections is placed on the laser diode from a side of the laser diode facing away from the heat sink, the holding element placed on the laser diode is supported at least indirectly on an upper side of the flange, which is formed on a side of the flange facing away from the heat sink, and the holding element is fixed to the heat sink, an elastic compensating element being arranged between the holding element and the top side of the flange of the housing of the laser diode, the compensating element being designed as a sheet-metal stamped part which has an annular section with a central opening whose shape corresponds to an outer contour of the housing of the laser diode on a side of the flange facing away from the heat sink, in that the elastic compensating element has spring tongues which project radially outwards from the annular section and are arranged circumferentially at a uniform distance from one another, and in that the holding element is fastened to the heat sink by means of two screws which are arranged on opposite sides of the laser diode.
Method for packaging food capsules comprising the following steps: a) introducing capsules inside of which there is a food substance in a container containing a first liquid; b) adding a second liquid with a density lower than that of the first liquid so that the layer of the second liquid in the container has a thickness of at least 0.5 cm; and c) proceeding to capping, labelling and final packaging of the product obtained. a) introducing capsules inside of which there is a food substance in a container containing a first liquid; b) adding a second liquid with a density lower than that of the first liquid so that the layer of the second liquid in the container has a thickness of at least 0.5 cm; and c) proceeding to capping, labelling and final packaging of the product obtained.
Medical knitted article for application to a body part for a medical or therapeutic treatment or for supporting the body part, the knitted article having a basic body knitted from a basic knitted fabric and at least one pocket for receiving a functional element, the knitted article being knitted seamlessly, the pocket being of bag-shaped design and being knitted seamlessly into the knitted article, characterized in that both the basic body and the pocket are each knitted in tubular form.
Electric damper assembly comprising a damper having a rotor and a stator, wherein rotor and stator connect a first component and a second component that can be moved relative to said first component, in addition, excitation coils and induction coils are provided, wherein a rotation of rotor relative to stator causes a rotation of excitation coils relative to the induction coils, wherein the excitation coils are supplied with electric energy, in order to generate an electromagnetic field, wherein a movement of excitation coils relative to induction coils induces an induction voltage in the induction coils, a sensor is provided, which detects the movement of the first component relative to the second component, a control unit is also provided, which is connected to the sensor and to the damper, wherein the control unit supplies the excitation coil with electric energy in such a way that an electromagnetic rotary field is generated, which overlies the rotation of the rotor relative to the stator, wherein the first component is a link of a chassis of a motor vehicle, and the second component is a vehicle body, characterised in that the sensor is arranged between link and vehicle body, in order to detect the spring travel and the acceleration of the link, wherein the control unit is designed in such a manner that the rotational direction and rotational velocity of the electromagnetic rotary field are adjusted depending on the measured spring travel and the acceleration of the link.
A thermally configurable structural element capable of assuming at least first and second structural configurations, wherein the structural element comprises an integral actuation mechanism comprised of: at least one thermally configurable region, and at least one non-thermally configurable region which is unitarily contiguous with the at least one thermally configurable region, wherein the at least one thermally configurable region is capable of assuming at least first and second positional orientations in response to the presence or absence of a thermal input to thereby cause the structural element to assume the at least first and second structural configurations, respectively, characterized in that the at least one thermally and non-thermally configurable regions are comprised of sintered shape memory alloy particles and sintered non-SMA particles, respectively. at least one thermally configurable region, and at least one non-thermally configurable region which is unitarily contiguous with the at least one thermally configurable region, wherein the at least one thermally configurable region is capable of assuming at least first and second positional orientations in response to the presence or absence of a thermal input to thereby cause the structural element to assume the at least first and second structural configurations, respectively, characterized in that the at least one thermally and non-thermally configurable regions are comprised of sintered shape memory alloy particles and sintered non-SMA particles, respectively.