mhurhangee/ep-ind-claims huggingface dataset:
A nested key assembly comprising - an inner-key (130; 140) which is operable by a user from a top side; - an outer-key (120; 130) which is operable by a user from the top side and which at least partially surrounds the inner-key (130; 140); - a carrier structure (110, 150); wherein the inner-key (130; 140) comprises at least one flexible arm (132; 142) that extends below the outer-key (120; 130) and that directly or indirectly touches the carrier structure (110, 150), characterised in that the flexible arm comprises an intermediate fixing element that divides the arm into a proximal segment and a distal segment and that is coupled to the carrier structure. - an inner-key (130; 140) which is operable by a user from a top side; - an outer-key (120; 130) which is operable by a user from the top side and which at least partially surrounds the inner-key (130; 140); - a carrier structure (110, 150);
A method of carrying out machine dishwashing, using a cleaning composition, the method comprising delivery of the cleaning composition into the machine, wherein the cleaning composition is delivered to the machine from a pressurised aerosol canister as a foam or as a foam precursor which forms foam before the machine is operated, and the cleaning composition comprises builder in a total amount of at least 5 %wt.
Cable for the electrical connection of photovoltaic modules to an energy network, with - at least one electrical and/or at least one optical conductor; - at least one insulation layer which encloses the conductor; and - An outer jacket which encloses the conductor and the insulation layer; characterized in that, a diffusion barrier layer is arranged between the outer jacket and the insulation layer, which is designed in a way to prevent or at least strongly reduce lateral diffusion of water and humidity towards the inside of the cable and that the diffusion barrier layer is thinner than the insulation layer and/or that the diffusion barrier layer is thinner than the outer jacket and that the diffusion barrier layer is made from a non-polar polymer material, preferably a polyolefin, and that the polymer material for the diffusion barrier layer is crosslinked and that the conductor with the corresponding insulation layer is enclosed by an inner jacket and that at least one inner or outer cable layer, like the outer jacket and the inner jacket or the outer jacket and the insulation layer, each comprise a flame-retardant or flame-proof additive, which is at least mostly free from halogens, and that the outer jacket is flame-retardant according to Norm IEC 60332-1-2. - at least one electrical and/or at least one optical conductor; - at least one insulation layer which encloses the conductor; and - An outer jacket which encloses the conductor and the insulation layer;
A device carrier for fastening a device to a building wall, comprising: - a base element having a base surface for fastening to the building wall and - a device holder (6, 6', 6") for receiving a device having a front side opposite the base surface, the device holder (6, 6', 6") being a device box for receiving an electrical device, characterized in that - an at least two-part insulation is provided, which circumferentially surrounds the device carrier between the base surface and the front side, - at least one first insulation part (2; 23) and a second insulation part (3; 24) being provided, which each have an inner contour corresponding at least to a portion of a circumferential contour of the device carrier, - the inner contour bearing in a form-fitting manner against the base element and against the device holder (6, 6', 6"), and the first insulation part (2; 23) and the second insulation part (3; 24) bearing against one another in a form-fitting and adjoining manner. - a base element having a base surface for fastening to the building wall and - a device holder (6, 6', 6") for receiving a device having a front side opposite the base surface, the device holder (6, 6', 6") being a device box for receiving an electrical device, - an at least two-part insulation is provided, which circumferentially surrounds the device carrier between the base surface and the front side, - at least one first insulation part (2; 23) and a second insulation part (3; 24) being provided, which each have an inner contour corresponding at least to a portion of a circumferential contour of the device carrier, - the inner contour bearing in a form-fitting manner against the base element and against the device holder (6, 6', 6"), and the first insulation part (2; 23) and the second insulation part (3; 24) bearing against one another in a form-fitting and adjoining manner.
A semiconductor wafer mass metrology apparatus comprising: a measurement chamber configured for measuring the weight and/or the mass of a semiconductor wafer; a first temperature changing part configured for changing a temperature of the semiconductor wafer before the semiconductor wafer is transported into the measurement chamber; and a first temperature sensor configured for sensing a first temperature, the semiconductor wafer mass metrology apparatus being characterized in that the first temperature is a temperature of the first temperature changing part. a measurement chamber configured for measuring the weight and/or the mass of a semiconductor wafer; a first temperature changing part configured for changing a temperature of the semiconductor wafer before the semiconductor wafer is transported into the measurement chamber; and a first temperature sensor configured for sensing a first temperature, the semiconductor wafer mass metrology apparatus being characterized in that the first temperature is a temperature of the first temperature changing part.
An aircraft emergency evacuation assembly, comprising: an inflatable slide; a soft cover containing the inflatable slide; a lace holding the soft cover closed; and a pin retaining the lace; the aircraft emergency evacuation assembly is characterized in that it further comprises a pneumatic actuator configured to release the lace by pulling the pin. an inflatable slide; a soft cover containing the inflatable slide; a lace holding the soft cover closed; and a pin retaining the lace; the aircraft emergency evacuation assembly is characterized in that it further comprises a pneumatic actuator configured to release the lace by pulling the pin.
A whole blood hollow fiber membrane filter medium comprising a ceramic material, which filter medium has a pore size ensuring permeability to blood plasma or serum, but retaining blood cells, wherein the whole blood hollow fiber membrane filter medium is obtainable by a phase inversion process from a spinning dope comprising at least one ceramic powder material, at least one polymer and at least one solvent, wherein the ceramic powder material preferably comprises aluminum oxide, the polymer is preferably polyacrylnitril or polyethersulfone and the solvent is preferably n-methyl-pyrrolidone, wherein the spinning dope is conducted through the annulus cross-section of a nozzle to give the green fiber, and the green fiber is sintered at a temperature from about 1350°C to about 1700°C for a time interval of at least 1 hour, preferably from 1.5 to 12 hours, wherein the median pore diameter of the obtained whole blood hollow fiber membrane filter medium is in the range of from about 100 nm to about 1500 nm, wherein the median pore diameter (d median) is the pore diameter at which 50% of total intruded volume of mercury is intruded into a sample, as measured by mercury intrusion porosimetry performed according to DIN 66133, wherein the whole blood hollow fiber filter has an outer diameter of from about 0.4 to about 3.0 mm, wherein the whole blood hollow fiber filter has an inner diameter of from about 0.2 to about 2.0 mm, provided that the inner diameter is lower than the outer diameter, and wherein the obtained whole blood hollow fiber membrane filter medium is coated with a coating material comprising bifunctional silanes with hydrolysable inorganic ethoxysilyl and fluoralkyl chains or with a coating material comprising fluoralkyl functional oligosiloxanes. wherein the spinning dope is conducted through the annulus cross-section of a nozzle to give the green fiber, and the green fiber is sintered at a temperature from about 1350°C to about 1700°C for a time interval of at least 1 hour, preferably from 1.5 to 12 hours, wherein the median pore diameter of the obtained whole blood hollow fiber membrane filter medium is in the range of from about 100 nm to about 1500 nm, wherein the median pore diameter (d median) is the pore diameter at which 50% of total intruded volume of mercury is intruded into a sample, as measured by mercury intrusion porosimetry performed according to DIN 66133, wherein the whole blood hollow fiber filter has an outer diameter of from about 0.4 to about 3.0 mm, wherein the whole blood hollow fiber filter has an inner diameter of from about 0.2 to about 2.0 mm, provided that the inner diameter is lower than the outer diameter, and wherein the obtained whole blood hollow fiber membrane filter medium is coated with a coating material comprising bifunctional silanes with hydrolysable inorganic ethoxysilyl and fluoralkyl chains or with a coating material comprising fluoralkyl functional oligosiloxanes.
A series resonant circuit power converter comprising: - an inverter; - a series LC resonant circuit; - a transformer comprising a primary circuit and a secondary circuit; and - means for controlling the inverter, the inverter being connected to the series LC resonant circuit that is intended to be connected to an output load (Rout) through the transformer, characterised in that the primary circuit comprises a first winding of N11 turns and a second winding of N12 turns with N11 = N12, an inductor (Lx) parallel to the first winding, a capacity capacitor Cx parallel to the second winding, and in that the inductor Lx parallel to the first winding, the capacitor Cx and the inductor Lr of the series LC resonant circuit are such that C X = 4 L R ∗ 1 ω 2 2 − ω 0 2 + 1 L X ω 2 2, with ω 2 being the low-load resonant pulse and ω 0 being the high-load resonant pulse. - an inverter; - a series LC resonant circuit; - a transformer comprising a primary circuit and a secondary circuit; and - means for controlling the inverter, the inverter being connected to the series LC resonant circuit that is intended to be connected to an output load (Rout) through the transformer, characterised in that the primary circuit comprises a first winding of N11 turns and a second winding of N12 turns with N11 = N12, an inductor (Lx) parallel to the first winding, a capacity capacitor Cx parallel to the second winding, and in that the inductor Lx parallel to the first winding, the capacitor Cx and the inductor Lr of the series LC resonant circuit are such that C X = 4 L R ∗ 1 ω 2 2 − ω 0 2 + 1 L X ω 2 2, with ω 2 being the low-load resonant pulse and ω 0 being the high-load resonant pulse.
An engine comprising: a cylinder head; a cylinder connected to the cylinder head; a crankcase connected to the cylinder, the crankcase has a structure divided right and left; and an oil tank including a first oil compartment and a second oil compartment, the oil tank being disposed below the crankcase, the first and second oil compartments (5a, 5b) are disposed right and left, wherein the engine comprises means configured to supply the cylinder head with a lubricating oil from the first oil compartment when the lubricating oil has a temperature of less than a predetermined value, the engine comprises means configured to supply the cylinder head with the lubricating oil at least from the second oil compartment when the lubricating oil has a temperature of greater than or equal to the predetermined value, an outer surface of the first oil compartment is exposed outside the engine, an outer surface of the second oil compartment is exposed outside the engine, and a sum of a surface area of an inner surface and a surface area of the outer surface of the first oil compartment is less than a sum of a surface area of an inner surface and a surface area of the outer surface of the second oil compartment, wherein at least portion of the oil tank is integrated with the crankcase, a partition is disposed between the first oil compartment and the second oil compartment, the partition 6 extends in a back-and-forth direction on a bottom portion of the crankcase, and divides the first and second oil compartments (5a, 5b) right and left. a cylinder head; a cylinder connected to the cylinder head; a crankcase connected to the cylinder, the crankcase has a structure divided right and left; and an oil tank including a first oil compartment and a second oil compartment, the oil tank being disposed below the crankcase, the first and second oil compartments (5a, 5b) are disposed right and left, wherein the engine comprises means configured to supply the cylinder head with a lubricating oil from the first oil compartment when the lubricating oil has a temperature of less than a predetermined value, the engine comprises means configured to supply the cylinder head with the lubricating oil at least from the second oil compartment when the lubricating oil has a temperature of greater than or equal to the predetermined value, an outer surface of the first oil compartment is exposed outside the engine, an outer surface of the second oil compartment is exposed outside the engine, and a sum of a surface area of an inner surface and a surface area of the outer surface of the first oil compartment is less than a sum of a surface area of an inner surface and a surface area of the outer surface of the second oil compartment, wherein at least portion of the oil tank is integrated with the crankcase, a partition is disposed between the first oil compartment and the second oil compartment, the partition 6 extends in a back-and-forth direction on a bottom portion of the crankcase, and divides the first and second oil compartments (5a, 5b) right and left.
A compound for detecting a histone deacetylase, said compound comprising the structure: wherein SIG is a signaling moiety, wherein SI is a self-immolative structure bound to SIG such that SIG has a reduced signal relative to the signal of SIG without SI, wherein m is an integer from 1 to 10, and wherein, when the compound is modifiable by the histone deacetylase, SI is destabilized and self-cleaved from SIG such that SIG generates an increased signal. wherein SIG is a signaling moiety, wherein SI is a self-immolative structure bound to SIG such that SIG has a reduced signal relative to the signal of SIG without SI, wherein m is an integer from 1 to 10, and wherein, when the compound is modifiable by the histone deacetylase, SI is destabilized and self-cleaved from SIG such that SIG generates an increased signal.
A catheter assembly comprising: a catheter comprising a flexible elongated member comprising a distal portion, the distal portion comprising: a tubular body defining an inner lumen, the tubular body defining a plurality of body apertures that extend through a sidewall of the tubular body into the inner lumen; and a plurality of primary electrodes positioned along the tubular body; and a wire defining at least one secondary electrode, the wire being configured to be slidably moved through the inner lumen of the tubular body, wherein the wire and the plurality of primary electrodes are configured to electrically couple to an energy source that delivers an electrical pulse to a fluid in contact with the plurality of primary electrodes and the at least one secondary electrode to cause the fluid to undergo cavitation to generate a pressure pulse wave within the fluid. a catheter comprising a flexible elongated member comprising a distal portion, the distal portion comprising: a tubular body defining an inner lumen, the tubular body defining a plurality of body apertures that extend through a sidewall of the tubular body into the inner lumen; and a plurality of primary electrodes positioned along the tubular body; and a tubular body defining an inner lumen, the tubular body defining a plurality of body apertures that extend through a sidewall of the tubular body into the inner lumen; and a plurality of primary electrodes positioned along the tubular body; and a wire defining at least one secondary electrode, the wire being configured to be slidably moved through the inner lumen of the tubular body, wherein the wire and the plurality of primary electrodes are configured to electrically couple to an energy source that delivers an electrical pulse to a fluid in contact with the plurality of primary electrodes and the at least one secondary electrode to cause the fluid to undergo cavitation to generate a pressure pulse wave within the fluid.
Screed assembly for use at a road finisher, wherein the screed assembly comprises: a control unit, a first compacting device (5a, 5b, 5c, 6a, 6b), and a second compacting device (5b, 5c, 6a, 6b, 6c), which is arranged in a first direction behind the first compacting device (5a, 5b, 5c, 6a, 6b), characterized in that the control unit is configured to activate and/or deactivate the second compacting device (5b, 5c, 6a, 6b, 6c) in a delayed manner relative to the first compacting device (5a, 5b, 5c, 6a, 6b) by a time period (T, T1), which is unequal to zero. a control unit, a first compacting device (5a, 5b, 5c, 6a, 6b), and a second compacting device (5b, 5c, 6a, 6b, 6c), which is arranged in a first direction behind the first compacting device (5a, 5b, 5c, 6a, 6b), characterized in that the control unit is configured to activate and/or deactivate the second compacting device (5b, 5c, 6a, 6b, 6c) in a delayed manner relative to the first compacting device (5a, 5b, 5c, 6a, 6b) by a time period (T, T1), which is unequal to zero.
An energy-autonomous cell phone platform comprising: - a mechanical basic structure having compensating elements for horizontal elevation on a substrate, wherein the basic structure forms a plurality of holding frames, - a plurality of reversibly fillable hollow bodies for weighting the mechanical basic structure, wherein each hollow body has at least one fastening element on an upper side and is held in one of the holding frames, - at least one regenerative energy generation device (26, 32), which is held on at least one fastening element of at least one the hollow bodies, - at least one power converter unit for the conversion of electrical energy generated by at least one energy generation device (26, 32), - at least one cell phone tower for holding at least one transmission antenna of the cell phone, which on its part is held on at least one fasting element of at least one of the hollow bodies, and electrical connecting lines, which connect the at least one power converter unit to the at least one regenerative energy generation device (26, 32) and to the at least one transmission antenna. - a mechanical basic structure having compensating elements for horizontal elevation on a substrate, wherein the basic structure forms a plurality of holding frames, - a plurality of reversibly fillable hollow bodies for weighting the mechanical basic structure, wherein each hollow body has at least one fastening element on an upper side and is held in one of the holding frames, - at least one regenerative energy generation device (26, 32), which is held on at least one fastening element of at least one the hollow bodies, - at least one power converter unit for the conversion of electrical energy generated by at least one energy generation device (26, 32), - at least one cell phone tower for holding at least one transmission antenna of the cell phone, which on its part is held on at least one fasting element of at least one of the hollow bodies, and electrical connecting lines, which connect the at least one power converter unit to the at least one regenerative energy generation device (26, 32) and to the at least one transmission antenna.
A forward osmosis membrane wherein a thin membrane layer exhibiting semi-permeable membrane performance is laminated on a polyketone support layer, wherein the polyketone support layer has pores with a maximum pore size of 50 nm or greater and no greater than 2 μm, as measured by the bubble point method according to JIS K3832, characterized in that the polyketone support layer is made of a copolymer of carbon monoxide and an olefin, the polyketone includes repeating units of 1-oxotrimethylene represented by the following formula, -CH 2 -CH 2 -C(=O)- wherein the proportion of 1-oxotrimethylene repeating units among the repeating units of the polyketone is 70 mol% or greater, the porosity of the polyketone support layer, determined as described in the description, is 70% or greater, the polyketone support layer is a flat membrane polyketone support layer having a thickness of no greater than 200 μm or a hollow fiber polyketone support layer having a thickness of 10 to 200 μm, and wherein the thin membrane layer exhibiting semi-permeable membrane performance is a polyamide thin membrane layer with a thickness of 0.05 to 2 μm.
A kit for placing a bypass between a first and a second body vessel (R, L) of a patient, the kit comprising a first catheter (10, 10') with a first delivery end and a second catheter with a second delivery end, a first guide wire moveable within the first catheter (10, 10'), the first guide wire having a first end region being moveable to the first delivery end, the first guide wire having an opposite end being opposite to the first end region, a second guide wire moveable within the second catheter, the second guide wire having a second end being moveable to the second delivery end, the second end of the second guide wire being a catch for capturing the first guide wire and for moving the first guide wire into the second catheter with the first end region of the first guide wire first, and a bypass element delivery system (52, 53, 8) for holding a bypass element (6, 7), the bypass element delivery system (52, 53, 8) being moveable along the first guide wire starting from the first end region of the first guide wire, wherein the bypass element delivery system (52, 53, 8) is capable of releasing and setting free the bypass element (6, 7), wherein the kit comprises an expansible element (40, 40'), the expansible element (40, 40') being capable of connecting with the bypass element delivery system (52, 53, 8) and of moving the bypass element delivery system (52, 53, 8) towards the opposite end of the first guide wire and wherein the expansible element (40, 40') is capable of releasing the bypass element delivery system (52, 53, 8) for setting the bypass element delivery system (52, 53, 8) free.
A multi-speed gear system for a manually propelled vehicle, comprising a gear unit with a hub casing, internal gear mechanisms (18, 23), a hub shaft (7, 202) and a shift axle (25, 211) provided with at least one multilevel cam (36, 208) and extending through said hub shaft (7, 202), the multi-speed gear system comprises at least one shift ring (38, 39, 203, 204) circumferentially arranged around the hub shaft (7, 202), and at least one radial shift operator (37, 207), characterized in that the multilevel cam (36, 208) radially operates the radial shift operator (37, 207), and the radial shift operator (37, 207) is arranged for operating the shift ring (38, 39, 203, 204) axially.