mhurhangee/patent-ind-claim-en huggingface dataset:
Device for processing bulk material, in particular a mixing device for bulk material, with a container device (10a; 10b) and with an outlet device (13a; 13b), wherein the outlet device (13a; 13b) comprises a base body (14a; 14b) which is configured for a substance-to-substance connection to the container device (10a; 10b)and is embodied as a cast part, wherein the base body (14a; 14b) has a support section with an accommodation for supporting a closure element (17a; 17b), and wherein the outlet device (13a; 13b) comprises the closure element , which is configured for closing off a pass-through opening , wherein the base body (14a; 14b) has a weld edge , which is configured for a substance-to-substance connection with the container device (10a; 10b), wherein the base body (14a; 14b) has a weld section adjoining the weld edge , wherein the weld section has a radial extension of at least 20 mm, wherein the weld section forms a section of the base body (14a; 14b), which is configured to realize the weld edge , wherein for an abutment with the container device (10a; 10b) only a portion of an abutment surface of the base body (14a; 14b) is allocated to the weld section , wherein the radial extension of the abutment surface is at least twice as large as a radial extension of the weld section , wherein for an abutment with the container device (10a; 10b) the abutment surface has a radial extension which in at least one cross-sectional plane is at most by a factor of 10 greater than the radial extension of the weld section , wherein the base body (14a; 14b) has the pass-through opening with a groove for an accommodation of at least one sealing element of the outlet device (13a; 13b), wherein the groove faces radially inwards, and wherein the outlet device (13a; 13b) has the sealing element , characterized in that the base body (14a; 14b) has a material thickness of at most 15 mm in the weld section and that the sealing element has an adjustable sealing geometry, wherein the sealing geometry of the sealing element is modifiable during an operation, wherein the sealing element as an adjustable sealing geometry has a modifiable volume, wherein the locking element is embodied in the form of a flap and is supported pivotably and is in an open position pivotable in a direction that faces away from the abutment surface .
A brake device for a traveling body of an elevator installation for braking on a rail having a first braking profile and a second braking profile , the brake device comprising a forcing element and a counter-support , the forcing element having a first forcing working face , which is adapted to act on the first braking profile , and a second forcing working face , which is adapted to act on the second braking profile , and the counter-support having a first counter-support working face , which is adapted to act on the first braking profile , and a second counter-support working face , which is adapted to act on the second braking profile , so that the first forcing working face and the first counter-support working face are arranged opposite one another at the first braking profile and the second forcing working face and the second counter-support working face are arranged opposite one another at the second braking profile , characterized in that the forcing element can be spread, and the spreading brings the first forcing working face into contact with the first braking profile and the second forcing working face with the second braking profile . the forcing element having a first forcing working face , which is adapted to act on the first braking profile , and a second forcing working face , which is adapted to act on the second braking profile , and the counter-support having a first counter-support working face , which is adapted to act on the first braking profile , and a second counter-support working face , which is adapted to act on the second braking profile , so that the first forcing working face and the first counter-support working face are arranged opposite one another at the first braking profile and the second forcing working face and the second counter-support working face are arranged opposite one another at the second braking profile , characterized in that the forcing element can be spread, and the spreading brings the first forcing working face into contact with the first braking profile and the second forcing working face with the second braking profile .
A cloth comprising a crimped fiber having a torque of 30 T/m or less, wherein torque is measured according to the method described in the description; wherein the crimped fiber is a composite yarn containing a false twisted crimped textured yarn A having torque in the S direction and a false twisted crimped textured yarn B having torque in the Z direction, wherein the false twisted crimped textured yarn A and the false twisted crimped textured yarn B contain different single fibers from each other; wherein the single fibers which are different from each other comprise a combination of a cationically dyable polyester and a cationically undyable polyester; wherein the crimped fiber is an interlaced yarn which has been subjected to interlacing in which the number of interlaces is 1 to 70 interlaces/m, wherein the interlacing degree is measured according to the method described in the description; wherein the crimped fiber has a single fiber fineness in the range of from 0.00002 to 2.0 dtex; wherein the crimped fiber has a total fineness in the range of from 40 to 180 dtex; and wherein a hydrophilizing agent has been applied to the cloth. wherein the crimped fiber is an interlaced yarn which has been subjected to interlacing in which the number of interlaces is 1 to 70 interlaces/m, wherein the interlacing degree is measured according to the method described in the description; wherein the crimped fiber has a single fiber fineness in the range of from 0.00002 to 2.0 dtex; wherein the crimped fiber has a total fineness in the range of from 40 to 180 dtex; and wherein a hydrophilizing agent has been applied to the cloth.
Connection device for connecting a conductor end , having a housing , a spring , and a current-conducting element which is designed as a busbar, wherein an actuating element which can move in or on the housing is provided for producing a state in which contact is made with the conductor end or a state in which contact is not made with the conductor end , wherein the actuating element is designed as a plastic/metal composite element, wherein the plastic/metal composite element has a metallic section, in particular a metallic core , which is completely or in sections surrounded by plastic, preferably injection-molded around it, so that the plastic forms a plastic section, in particular a plastic sheath , wherein the actuating element has an actuating end for manual or tool-assisted actuation, as well as an acting section , in particular an acting end, which can act directly or indirectly on the spring , and wherein the spring is made of a conductive metal and is directly or indirectly conductively connected or connectable to the busbar, wherein the metallic section is exposed at the acting section in such a manner that the spring can be contacted with it, characterized in that the metallic section, in particular the core , of the actuating element conductively connects the actuating section of the actuating element to its acting section , wherein the metallic section is exposed at the actuating section in such a way that it can be contacted with a conducting element such as a test probe .
A lighting apparatus, comprising: a light emitting diode chip emitting blue light; a green phosphor having an emission peak in a range of 500 nm to 550 nm; and a red phosphor having an emission peak in a range of 600 nm to 650nm, wherein the red phosphor comprises: a first red phosphor having an emission peak in a range of 620 nm to 630 nm; and a second red phosphor having an emission peak in a range of 630 nm to 640 nm, wherein full widths at half maximum of the first red phosphor and the second red phosphor are in a range of 20 nm to 60 nm. a light emitting diode chip emitting blue light; a green phosphor having an emission peak in a range of 500 nm to 550 nm; and a red phosphor having an emission peak in a range of 600 nm to 650nm, wherein the red phosphor comprises: a first red phosphor having an emission peak in a range of 620 nm to 630 nm; and a second red phosphor having an emission peak in a range of 630 nm to 640 nm, wherein full widths at half maximum of the first red phosphor and the second red phosphor are in a range of 20 nm to 60 nm. a first red phosphor having an emission peak in a range of 620 nm to 630 nm; and a second red phosphor having an emission peak in a range of 630 nm to 640 nm, wherein full widths at half maximum of the first red phosphor and the second red phosphor are in a range of 20 nm to 60 nm.
Adsorption device for compressed gas, whereby this adsorption device is provided with a vessel with an inlet for the supply of a compressed gas to be treated, and an outlet for treated gas and whereby an adsorption element is affixed in the aforementioned vessel , whereby this adsorption element extends along the flow direction of the compressed gas to be treated, between the aforementioned inlet and the aforementioned outlet , characterised in that the aforementioned adsorption element comprises a monolithic supporting structure that is at least partially provided with a coating that contains an adsorbent, in that a number of adsorption elements are placed in series in the aforementioned vessel along the flow direction of the gas, said adsorption elements being stacked on one another, in that a seal is provided between every two adsorption elements placed on one another and in that shrink sleeving is affixed over the peripheral wall of the stack of adsorption elements .
An electronic apparatus comprising: a first wireless module configured to receive, or transmit and receive, a first wireless signal corresponding to a user's input from an external apparatus in a first communication method; a second wireless module configured to transmit and receive a second wireless signal via a network in a second communication method different from the first communication method; characterised by comprising: a controller configured to, when the first wireless module is receiving and the second wireless module is in operation, compare data included in the first wireless signal received by the first wireless module with data in a signal format of the first communication method to identify whether a noise exists in the data included in the first wireless signal if the result of the comparison is negative, and in response to identifying that a noise exists in the data included in the first wireless signal, change a power supplied to the second wireless module. a first wireless module configured to receive, or transmit and receive, a first wireless signal corresponding to a user's input from an external apparatus in a first communication method; a second wireless module configured to transmit and receive a second wireless signal via a network in a second communication method different from the first communication method; characterised by comprising: a controller configured to, when the first wireless module is receiving and the second wireless module is in operation, compare data included in the first wireless signal received by the first wireless module with data in a signal format of the first communication method to identify whether a noise exists in the data included in the first wireless signal if the result of the comparison is negative, and in response to identifying that a noise exists in the data included in the first wireless signal, change a power supplied to the second wireless module. a controller configured to, when the first wireless module is receiving and the second wireless module is in operation, compare data included in the first wireless signal received by the first wireless module with data in a signal format of the first communication method to identify whether a noise exists in the data included in the first wireless signal if the result of the comparison is negative, and in response to identifying that a noise exists in the data included in the first wireless signal, change a power supplied to the second wireless module.
Sludge separator having a sedimentation tank that has a side wall and a base , wherein the sedimentation tank is divided in the vertical direction into a lower sedimentation region (A), an intermediate region (B) and an upper fluid exchange region (C), an inlet for supplying a fluid carrying solid particles into the sedimentation tank , which inlet has an end section (5-3) having an inlet opening , wherein the inlet opening is arranged in the upper fluid exchange region (C) in the vertical direction and opens into the sedimentation tank in a horizontal plane in a peripheral region of the sedimentation tank and wherein the end section (5-3) is orientated such that the supplied fluid flows into the sedimentation tank tangentially, and an outlet for discharging fluid out of the sedimentation tank , which outlet has an outlet opening which is arranged in the upper fluid exchange region (C) in the vertical direction, wherein the outlet opening is arranged in a central region of the sedimentation tank in a horizontal plane, characterised in that several fins are arranged in the end section (5-3) of the inlet . a sedimentation tank that has a side wall and a base , wherein the sedimentation tank is divided in the vertical direction into a lower sedimentation region (A), an intermediate region (B) and an upper fluid exchange region (C), an inlet for supplying a fluid carrying solid particles into the sedimentation tank , which inlet has an end section (5-3) having an inlet opening , wherein the inlet opening is arranged in the upper fluid exchange region (C) in the vertical direction and opens into the sedimentation tank in a horizontal plane in a peripheral region of the sedimentation tank and wherein the end section (5-3) is orientated such that the supplied fluid flows into the sedimentation tank tangentially, and an outlet for discharging fluid out of the sedimentation tank , which outlet has an outlet opening which is arranged in the upper fluid exchange region (C) in the vertical direction, wherein the outlet opening is arranged in a central region of the sedimentation tank in a horizontal plane, characterised in that several fins are arranged in the end section (5-3) of the inlet .
Process for preparing surface-modified silicon dioxide particles with a mean particle diameter of at most 100 nm, comprising the steps of a) providing a predispersion b) high-pressure grinding of the predispersion to form a dispersion c) removing the liquid phase of the dispersion, the predispersion comprising a1) surface-modified silicon dioxide particles which - are at least partly aggregated, - are bonded to the surface-modifying component via Si-O-Si bonds and - still have reactive groups on their surface, a2) one or more organosilicon compounds which - have at least one silicon-carbon bond and - at least one functional group which can react with the reactive groups to form a covalent Si-O-Si bond, and a3) one or more solvents. a) providing a predispersion b) high-pressure grinding of the predispersion to form a dispersion c) removing the liquid phase of the dispersion, the predispersion comprising a1) surface-modified silicon dioxide particles which - are at least partly aggregated, - are bonded to the surface-modifying component via Si-O-Si bonds and - still have reactive groups on their surface, a2) one or more organosilicon compounds which - have at least one silicon-carbon bond and - at least one functional group which can react with the reactive groups to form a covalent Si-O-Si bond, and a3) one or more solvents. a1) surface-modified silicon dioxide particles which - are at least partly aggregated, - are bonded to the surface-modifying component via Si-O-Si bonds and - still have reactive groups on their surface, - are at least partly aggregated, - are bonded to the surface-modifying component via Si-O-Si bonds and - still have reactive groups on their surface, a2) one or more organosilicon compounds which - have at least one silicon-carbon bond and - at least one functional group which can react with the reactive groups to form a covalent Si-O-Si bond, and - have at least one silicon-carbon bond and - at least one functional group which can react with the reactive groups to form a covalent Si-O-Si bond, and a3) one or more solvents.
A fragrance composition comprising a compound selected from the group consisting of oxydicyclohexane, (oxybis(methylene))dicyclohexane, and a mixture thereof, wherein the compound is present in an amount from about 0.005 to about 50 weight percent of the fragrance composition.
A method of operating an internal combustion engine having at least two cylinders and at least one exhaust valve providing selective communication between each cylinder and an exhaust manifold, the method of operating the engine comprising actuating the exhaust valves in each cylinder and further comprising the steps of: providing one or more first cams having a compression-release lobe and a main exhaust lobe adapted to transfer valve actuation motion to a first exhaust valve associated with a first cylinder; providing one or more second cams having an early exhaust valve opening lobe and a main exhaust lobe adapted to transfer valve actuation motion to a second exhaust valve associated with a second cylinder, wherein timing of valve actuation motion provided by the early exhaust valve opening lobe differs from timing of valve actuation motion provided by the compression-release lobe in that the compression-release lobe provides for the first exhaust valve being opened prior to a top dead center (TDC) engine piston position and the early exhaust valve opening lobe provides for the second exhaust valve being opened as early as immediately after the top dead center (TDC) engine piston position; and operating the engine in a first positive power mode of operation in which the first exhaust valve in the first cylinder is actuated for a main exhaust event without being actuated for a compression-release event , and the second exhaust valve in the second cylinder is actuated for a main exhaust event without being actuated for an early exhaust valve opening event . providing one or more first cams having a compression-release lobe and a main exhaust lobe adapted to transfer valve actuation motion to a first exhaust valve associated with a first cylinder; providing one or more second cams having an early exhaust valve opening lobe and a main exhaust lobe adapted to transfer valve actuation motion to a second exhaust valve associated with a second cylinder, wherein timing of valve actuation motion provided by the early exhaust valve opening lobe differs from timing of valve actuation motion provided by the compression-release lobe in that the compression-release lobe provides for the first exhaust valve being opened prior to a top dead center (TDC) engine piston position and the early exhaust valve opening lobe provides for the second exhaust valve being opened as early as immediately after the top dead center (TDC) engine piston position; and operating the engine in a first positive power mode of operation in which the first exhaust valve in the first cylinder is actuated for a main exhaust event without being actuated for a compression-release event , and the second exhaust valve in the second cylinder is actuated for a main exhaust event without being actuated for an early exhaust valve opening event .
A spun-bonded nonwoven fabric comprising polypropylene fibers, wherein all of the following conditions A to E are satisfied: A. the fibers have an average single fiber diameter of 6 μm or more and 17 μm or less; B. the fibers have a crystal orientation degree in wide-angle X-ray diffraction of 0.91 or more; C. the fibers have a crystallite size of a plane in wide-angle X-ray diffraction of 12 nm or more; D. the fibers have an average orientation parameter in Raman spectroscopy of 8.0 or more; and E. the spun-bonded nonwoven fabric has a complex viscosity of 20 Pa•sec or more and 100 Pa•sec or less at a temperature of 230 °C at an angular frequency of 6.3 rad/sec; wherein the average single fiber diameter, the crystal orientation degree, the crystallite size, the orientation parameter and the complex viscosity are measured by the methods described in the specification. A. the fibers have an average single fiber diameter of 6 μm or more and 17 μm or less; B. the fibers have a crystal orientation degree in wide-angle X-ray diffraction of 0.91 or more; C. the fibers have a crystallite size of a plane in wide-angle X-ray diffraction of 12 nm or more; D. the fibers have an average orientation parameter in Raman spectroscopy of 8.0 or more; and E. the spun-bonded nonwoven fabric has a complex viscosity of 20 Pa•sec or more and 100 Pa•sec or less at a temperature of 230 °C at an angular frequency of 6.3 rad/sec;
A method for assembling a cover glass in an endoscope, wherein an uncoated cover glass is soldered into an intermediate ring , the cover glass soldered into the intermediate ring is provided with a coating, at least on an inner side , a drying agent is introduced into a sheath of the optical system of the endoscope and the intermediate ring provided with the coated cover glass is joined into the sheath of the optical system of the endoscope, wherein the sheath is an eyecup sheath and the cover glass is a proximal end window of the endoscope.
An in vitro method of detecting infection or inflammation in a mammalian subject, the method comprising (a) detecting the amount of at least one marker that is selected from glutamate, lactate, ATP, D-serine, acetylcholine and adenosine in a whole blood sample from said subject, (b) contacting the said whole blood sample with a stimulator of immune cells, and (c) determining whether the said stimulus leads to a change in the amount of the said marker(s) in the whole blood sample. (a) detecting the amount of at least one marker that is selected from glutamate, lactate, ATP, D-serine, acetylcholine and adenosine in a whole blood sample from said subject, (b) contacting the said whole blood sample with a stimulator of immune cells, and (c) determining whether the said stimulus leads to a change in the amount of the said marker(s) in the whole blood sample.
A method of synthesizing 6-[ -4-methyl-1-(pyrimidin-2-ylmethyl)pyrrolidin-3-yl]-3-tetrahydropyran-4-yl-7H-imidazo[1,5-a]pyrazin-8-one (Compound P3.1 ), wherein the method does not comprise a chiral chromatographic separation of the enantiomeric forms of any intermediate and the final product, and wherein the method comprises the steps of: A. synthesizing Intermediate 4; B. synthesizing Intermediate 9; C. synthesizing Compound P3.1 with the following scheme: A. synthesizing Intermediate 4; B. synthesizing Intermediate 9; C. synthesizing Compound P3.1 with the following scheme:
A negative electrode slurry comprising lithium titanium oxide (LTO), a carboxylic acid-containing polymer dispersant, a binder, and an aqueous solvent, wherein the carboxylic acid-containing polymer dispersant has a weight average molecular weight (Mw) of 3000 g/mol to 250,000 g/mol and is included in an amount of 2 parts by weight to 10 parts by weight with respect to 100 parts by weight of the lithium titanium oxide, and wherein the carboxylic acid-containing polymer dispersant comprises, in a polymer chain, repeating units derived from any one selected from acrylic acid and maleic acid. wherein the carboxylic acid-containing polymer dispersant has a weight average molecular weight (Mw) of 3000 g/mol to 250,000 g/mol and is included in an amount of 2 parts by weight to 10 parts by weight with respect to 100 parts by weight of the lithium titanium oxide, and wherein the carboxylic acid-containing polymer dispersant comprises, in a polymer chain, repeating units derived from any one selected from acrylic acid and maleic acid.