mhurhangee/ep-ind-claims huggingface dataset:
A detection apparatus comprising: an electrode formation unit that is configured to be brought into contact with an object to form an electrode; a detection unit that constitutes an electrode pair with the electrode, wherein the detection unit further includes an electron source emission unit capable of emitting an electron source, - wherein said electron source is selected from glucose or lactic acid, or solutions thereof, and - wherein the electron source emission unit includes a nozzle for emitting said electron source, an electron source storage unit communicating with the nozzle via a pipe, and a pump arranged in the pipe, and the electron source emission unit is configured so that a predetermined amount of the electron source is emitted by operating the pump controlled by a control unit; a measurement unit that is configured to measure a current flowing between the electrode and the detection unit; and a determination unit that is configured to determine presence or absence of an abnormality related to bacteria attached to the object according to the current measured by the measurement unit. an electrode formation unit that is configured to be brought into contact with an object to form an electrode; a detection unit that constitutes an electrode pair with the electrode, wherein the detection unit further includes an electron source emission unit capable of emitting an electron source, - wherein said electron source is selected from glucose or lactic acid, or solutions thereof, and - wherein the electron source emission unit includes a nozzle for emitting said electron source, an electron source storage unit communicating with the nozzle via a pipe, and a pump arranged in the pipe, and the electron source emission unit is configured so that a predetermined amount of the electron source is emitted by operating the pump controlled by a control unit; - wherein said electron source is selected from glucose or lactic acid, or solutions thereof, and - wherein the electron source emission unit includes a nozzle for emitting said electron source, an electron source storage unit communicating with the nozzle via a pipe, and a pump arranged in the pipe, and the electron source emission unit is configured so that a predetermined amount of the electron source is emitted by operating the pump controlled by a control unit; a measurement unit that is configured to measure a current flowing between the electrode and the detection unit; and a determination unit that is configured to determine presence or absence of an abnormality related to bacteria attached to the object according to the current measured by the measurement unit.
A cot comprising: a support frame extending between a front end of the cot and a back end of the cot; a front leg and a back leg slidingly coupled to the support frame, wherein the front leg and the back leg retract and extend to facilitate loading or unloading from a loading surface; a middle portion disposed between the front end of the cot and the back end of the cot; and a line indicator coupled to the cot, wherein the line indicator projects an optical line indicative of the middle portion of the cot; characterized in that the cot further comprises: one or more processors communicatively coupled to the line indicator, wherein the one or more processors execute machine readable instructions to: receive signals from one or more sensors indicative of the front end of the cot; and cause the line indicator to project the optical line, when the front end of the cot is above the loading surface. a support frame extending between a front end of the cot and a back end of the cot; a front leg and a back leg slidingly coupled to the support frame, wherein the front leg and the back leg retract and extend to facilitate loading or unloading from a loading surface; a middle portion disposed between the front end of the cot and the back end of the cot; and a line indicator coupled to the cot, wherein the line indicator projects an optical line indicative of the middle portion of the cot; characterized in that the cot further comprises: one or more processors communicatively coupled to the line indicator, wherein the one or more processors execute machine readable instructions to: receive signals from one or more sensors indicative of the front end of the cot; and cause the line indicator to project the optical line, when the front end of the cot is above the loading surface. one or more processors communicatively coupled to the line indicator, wherein the one or more processors execute machine readable instructions to: receive signals from one or more sensors indicative of the front end of the cot; and receive signals from one or more sensors indicative of the front end of the cot; and cause the line indicator to project the optical line, when the front end of the cot is above the loading surface.
A seal assembly of a gas turbine engine, comprising: a first engine component including a flange, the first engine component disposed between a first airflow path and a second airflow path; a first seal disposed between the first airflow path and the flange; and a second seal disposed between the first airflow path and the second airflow path, wherein the second seal is disposed in a series arrangement with the first seal, and the second seal mechanically supports the first seal, wherein the first engine component comprises a seal support, wherein the first seal is disposed on the seal support, characterised in that the second seal comprises a second seal support extending radially from the second seal, a radially outer surface of the second seal support is substantially flush with a radially outer surface of the seal support. a first engine component including a flange, the first engine component disposed between a first airflow path and a second airflow path; a first seal disposed between the first airflow path and the flange; and a second seal disposed between the first airflow path and the second airflow path, wherein the second seal is disposed in a series arrangement with the first seal, and the second seal mechanically supports the first seal, wherein the first engine component comprises a seal support, wherein the first seal is disposed on the seal support, characterised in that the second seal comprises a second seal support extending radially from the second seal, a radially outer surface of the second seal support is substantially flush with a radially outer surface of the seal support.
A thermoplastic polymer composition comprising 10 to 90 wt% of a phthalimidine copolycarbonate having a glass transition temperature of greater than 150°C, preferably greater than 170°C, as measured using differential scanning calorimetry; 10 to 90 wt% of a poly(etherimide-siloxane) copolymer; and 0 to 10 wt% of an additive comprising a filler, a catalyst, an antioxidant, a thermal stabilizer, a quencher, a colorant, a mold release agent, a light stabilizer, an ultraviolet light absorbing additive, a plasticizer, a lubricant, an antistatic agent, a flame retardant, an anti-drip agent, a hydrostabilizer, or a combination comprising at least one of the foregoing, wherein the weight percentages are based on the total weight of the composition. 10 to 90 wt% of a phthalimidine copolycarbonate having a glass transition temperature of greater than 150°C, preferably greater than 170°C, as measured using differential scanning calorimetry; 10 to 90 wt% of a poly(etherimide-siloxane) copolymer; and 0 to 10 wt% of an additive comprising a filler, a catalyst, an antioxidant, a thermal stabilizer, a quencher, a colorant, a mold release agent, a light stabilizer, an ultraviolet light absorbing additive, a plasticizer, a lubricant, an antistatic agent, a flame retardant, an anti-drip agent, a hydrostabilizer, or a combination comprising at least one of the foregoing, wherein the weight percentages are based on the total weight of the composition.
Drive circuit for a pneumatic or hydraulic actuator, in particular a pneumatic or hydraulic actuating cylinder of a vehicle transmission, having a plurality of valves (2, 3, 4, 5), wherein a pneumatic or hydraulic control medium can be fed to the pneumatic or hydraulic actuator, or discharged therefrom, as function of a switched position of the valves (2, 3, 4, 5), and having an electronic unit by means of which all the valves (2, 3, 4, 5) can be actuated in order to determine their switched position and in order to hold the actuator in a defined actuating position or to move it into a defined actuating position, and having an additional electronic unit which, in the event of failure of the electronic unit, actuates at least one of the valves in such a way that the actuator maintains or assumes a defined actuating position, characterized in that the valve which is actuated by the additional electronic unit in the event of failure of the electronic unit is assigned to the additional electronic unit in such a way that • when the electronic unit is active, the electronic unit actuates this valve via the additional electronic unit in such a way that commands of the additional electronic unit are overwritten, and • in the event of failure of the electronic unit the additional electronic unit actuates this valve. • when the electronic unit is active, the electronic unit actuates this valve via the additional electronic unit in such a way that commands of the additional electronic unit are overwritten, and • in the event of failure of the electronic unit the additional electronic unit actuates this valve.
Handling device for inserting a part to be bent into a bending device for the bending thereof about at least one bending edge (42, 44), wherein with the handling device the part to be bent is movable between a receiving position for the part to be bent on a loading surface and a bending device insertion position for the part to be bent, wherein the handling device has a holding unit which is formed to be elongate in a longitudinal direction and has at least one holding element with which the part to be bent, which is to be received and is arranged on a loading surface, is grippable on one of its flat sides by forces of attraction on one side of the flat side at a plurality of successive locations in the longitudinal direction, and the holding unit for its part is pivotable relative to a pivoting carrier unit about a first pivot axis parallel to the longitudinal direction, the pivoting carrier unit being pivotable relative to a pivoting carrier base about a second pivot axis which extends parallel to the first pivot axis, wherein the pivoting carrier base is movable by means of a carrier base moving unit in a direction transverse to the second pivot axis, characterised in that the pivoting carrier unit has at least two pivot arms extending to the first pivot axis, in that the pivot arms are rigidly connected to one another, in that the pivot arms are connected to one another by an insert extending therebetween, and in that in particular the insert is constructed as an inherently rigid frame, and in that in particular the holding unit is pivotally mounted on the insert about the first pivot axis by means of a plurality of pivot bearing points arranged successively in the longitudinal direction.
A method for analyzing a urine sample, comprising the steps of: preparing a measurement sample by mixing the urine sample and a first reagent containing at least one fluorescent dye selected from 3,3'-diethyloxacarbocyanine iodide (DiOC2), 3,3-dipropyloxacarbocyanine iodide (DiOC3), 3,3'-dibutyloxacyanine iodide (DiOC4) and 3,3-dipentyloxacarbocyanine iodide (DiOC5), and detecting at least casts and erythrocytes as urinary particles contained in the measurement sample obtained in the preparation step. preparing a measurement sample by mixing the urine sample and a first reagent containing at least one fluorescent dye selected from 3,3'-diethyloxacarbocyanine iodide (DiOC2), 3,3-dipropyloxacarbocyanine iodide (DiOC3), 3,3'-dibutyloxacyanine iodide (DiOC4) and 3,3-dipentyloxacarbocyanine iodide (DiOC5), and detecting at least casts and erythrocytes as urinary particles contained in the measurement sample obtained in the preparation step.
A shower apparatus comprising a distally disposed head attached to a housing body which matingly receives a micro bubble generating apparatus (300, 1300, 2300, 3300) for providing a plurality of micro bubbles into an internal cavity of the housing body, the micro bubble generating apparatus (300, 1300, 2300, 3300) comprising a housing configured to mechanically engage on an orifice nozzle and a flow of a liquid and gas mixture is distributed through the orifice nozzle into a series of passages (312, 314, 314a, 314b, 316) of the micro bubble generating apparatus (300, 1300, 2300, 3300) oriented at an angle to each other in the housing of the micro bubble generating apparatus (300, 1300, 2300, 3300), at the outlet of the orifice nozzle, the housing of the micro bubble generating apparatus (300, 1300, 2300, 3300) includes an intermediate chamber provided at an outlet of the orifice nozzle, the intermediate chamber comprising side walls tapering inwardly in a direction from bottom to top towards the fluid flow, characterized in that the head has a plurality of projections for mechanically engaging a surface and further comprises a lumen in at least one of the projections through which the micro bubbles are delivered from the internal cavity, the series of passages (312, 314, 314a, 314b, 316) comprising two first fluid pathways (312, 316) directly connected to the intermediate chamber and oriented perpendicular to the top portion of such intermediate chamber, the series of passages (312, 314, 314a, 314b, 316) further comprising two second fluid pathways (314a, 314b) directly connected to and oriented perpendicular to the first fluid pathways (316,312) respectively, or only a single second pathway directly connected to and oriented perpendicular to the first fluid pathways (316, 312).
An impeller pump comprising: a hub (10,20,30,60,80,100,184); and a blade (12, 15, 22, 32, 34, 62A, 64A, 66A, 62B, 64B, 66B, 102, 104, 106, 108, 110, 112, 120, 140, 144, 180) supported by the hub, the blade having a proximal end attached to the hub and a distal end; wherein end, the blade (12, 15, 22, 32, 34, 62A, 64A, 66A, 62B, 64B, 66B, 102, 104, 106, 108, 110, 112, 120, 140, 144, 180) has a deployed configuration, a stored configuration and an operational configuration, the blade in the deployed configuration extending away from the hub, the blade in the stored configuration being compressed so as to move the distal end of the blade towards the hub, (10,20,30,60,80,100,184) and the blade in the operational configuration being deformed from the deployed configuration upon rotation of the impeller when in the deployed configuration; characterized in that a winglet (122, 142, 146) is supported by the distal end of the blade (12, 15, 22, 32, 34, 62A, 64A, 66A, 62B, 64B, 66B, 102, 104, 106, 108, 110, 112, 120, 140, 144, 180), wherein the winglet extends laterally from at least one outer edge of the blade along an axial length of the distal end of the blade, wherein the winglet defines a lateral length extending transversely to the axial length, and wherein the lateral length of the winglet is variable along the axial length of the distal end of the blade. a hub (10,20,30,60,80,100,184); and a blade (12, 15, 22, 32, 34, 62A, 64A, 66A, 62B, 64B, 66B, 102, 104, 106, 108, 110, 112, 120, 140, 144, 180) supported by the hub, the blade having a proximal end attached to the hub and a distal end; wherein end, the blade (12, 15, 22, 32, 34, 62A, 64A, 66A, 62B, 64B, 66B, 102, 104, 106, 108, 110, 112, 120, 140, 144, 180) has a deployed configuration, a stored configuration and an operational configuration, the blade in the deployed configuration extending away from the hub, the blade in the stored configuration being compressed so as to move the distal end of the blade towards the hub, (10,20,30,60,80,100,184) and the blade in the operational configuration being deformed from the deployed configuration upon rotation of the impeller when in the deployed configuration; characterized in that a winglet (122, 142, 146) is supported by the distal end of the blade (12, 15, 22, 32, 34, 62A, 64A, 66A, 62B, 64B, 66B, 102, 104, 106, 108, 110, 112, 120, 140, 144, 180), wherein the winglet extends laterally from at least one outer edge of the blade along an axial length of the distal end of the blade, wherein the winglet defines a lateral length extending transversely to the axial length, and wherein the lateral length of the winglet is variable along the axial length of the distal end of the blade.
A process to produce allyl alcohol comprising isomerizing propylene oxide, at a propylene oxide conversion of 35 percent or lower, in the presence of a lithium phosphate catalyst which containsfrom 0.1 wt % to 0.8 wt % of boron and from 2500 to 3500 ppm sodium.
A pneumatic tire comprising a tread portion, a pair of sidewall portions, a pair of bead portions each having a bead core therein, a carcass extending between bead cores through the tread portion and sidewall portions, and a belt disposed radially outside the carcass in the tread portion, wherein in a tire meridian section including a tire axis under a standard state that the tire is mounted on a standard rim and inflated to a standard pressure but loaded with no tire load, the tire has a pair of sidewall profiles each extending from a tire maximum-width point in an axial direction of a tire to a tread edge, each sidewall profile comprises a convex arc part and a concave arc part, the convex arc part has a center of a radius of curvature located in a side of a tire inner cavity and extends from the tire maximum-width point (wm) to radially outside of the tire, the concave arc part has a center of the arc located outside of the tire and extends from the convex part to the tread edge (Te), the concave arc part is located in axially outside than an extended line which extends radially outside of the tire from the convex arc part, the tread edge (Te) is located in the axially outside of the tire than the axially innermost point of the concave arc part, and the tire has a tread profile in the tire meridian section, characterized in that the tread profile is composed of a plurality of arcs having radiuses of curvature which are gradually decreasing toward the tread edge (Te) from a tire equator.
A fixing unit for an agitator ball mill comprising a drive shaft (60, 110) of the agitator ball mill, an agitator shaft (51, 101) of the agitator ball mill, and a tension rod (70, 120), wherein a free end (55, 105) of the agitator shaft (51, 101) is arranged on a first free end (61, 111) of the drive shaft (60, 110) in a positive and/or non-positive manner, so that an operative connection exists between the agitator shaft (51, 101) and the drive shaft (60, 110), wherein the drive shaft (60, 110) is a hollow shaft comprising a continuous hollow space (64, 114) along a longitudinal axis (X60, X110) of the drive shaft (60, 110), and wherein the tension rod (70, 120) is guided inside the hollow space (64, 114) of the drive shaft (60, 110) and has, on a first free end (71, 121), a first connecting element (72, 122), and, on the opposite second free end (73, 123), a head (74, 124), wherein the first connecting element (72, 122) of the tension rod (70, 120) forms a positive and non-positive connection with a correspondingly embodied second connecting element (57, 107) on the free end of the agitator shaft (51, 101), which is arranged on the drive shaft (60, 110), and wherein the head (74, 124) of the tension rod (70, 120) protrudes at least partially beyond a second free end (65, 115) of the drive shaft (60, 110), wherein the tension rod (70, 120) can be fixed to the drive shaft (60, 110) by means of a flange connection (84, 135), characterized in that a second free end (65, 115) of the drive shaft (60, 110) is embodied as a collar, to which a first flange (80, 95, 131) is attached and/or wherein a second free end (65, 115) of the drive shaft (60, 110) comprises a circumferential groove, into which a first flange (80, 95, 131) is attached, wherein the head (74, 124) of the tension rod (70, 120) is embodied as second flange and wherein the first flange (80, 95, 131) is movably arranged on the second free end (65, 115) of the drive shaft (60, 110), in particular wherein the first flange (80, 95, 131) is arranged on the second free end (65, 115) of the drive shaft (60, 110) in a rotationally movable and/or at least partially axially displaceable manner.
A spin-orbit torque, SOT, device, comprising: a substrate; and a bismuth antimony dopant element, BiSbE, alloy layer (50; 200) over the substrate, the BiSbE alloy layer having a orientation, the BiSbE alloy layer comprising, bismuth; antimony; and a dopant element, wherein the bismuth and antimony of the BiSbE alloy layer form a plurality of BiSb lamellae layers, wherein the dopant element of the BiSbE alloy layer forms one or more dopant element lamellae layers, each of the dopant element lamellae layers comprising a material selected from a group consisting of a non-metallic dopant element, a metallic dopant element, and combinations thereof, and wherein the BiSbE alloy layer comprises the one or more dopant element lamellae layers at a bottom edge of the BiSbE alloy layer. a substrate; and a bismuth antimony dopant element, BiSbE, alloy layer (50; 200) over the substrate, the BiSbE alloy layer having a orientation, the BiSbE alloy layer comprising, bismuth; antimony; and a dopant element, bismuth; antimony; and a dopant element, wherein the bismuth and antimony of the BiSbE alloy layer form a plurality of BiSb lamellae layers, wherein the dopant element of the BiSbE alloy layer forms one or more dopant element lamellae layers, each of the dopant element lamellae layers comprising a material selected from a group consisting of a non-metallic dopant element, a metallic dopant element, and combinations thereof, and wherein the BiSbE alloy layer comprises the one or more dopant element lamellae layers at a bottom edge of the BiSbE alloy layer.