mhurhangee/ep-ind-claims huggingface dataset:
A device to assemble a skin and a frame of an aircraft fuselage, the device comprising: a support platform; first and second base members (21, 22) that extend along opposing sides of a gap, said first and second base members (21, 22) being part of the support platform; a plurality of arches that are spaced apart and fixedly connected to the first and second base members (21, 22) and that extend across the gap, said plurality of arches being part of the support platform; a strongback that is attached to and movable along the first and second base members (21, 22), the strongback comprising a curved shape that matches the plurality of arches, the strongback further comprising clamps configured to engage with the frame; first and second tension devices configured to apply waterline tension force to side edges of the skin at the strongback; and fingers positioned along each of the arches and extending outward beyond the arches to contact against and support the skin, each of the fingers comprising a body that is connected to one of the arches and an enlarged head at an end of the body and configured to contact against the skin; wherein each of the arches comprises a central section centered on an apex and lateral sections positioned on each side of the central section, the fingers of the arches along the central section having a fixed position and the fingers of the arches along the lateral sections being movable relative to the arches. a support platform; first and second base members (21, 22) that extend along opposing sides of a gap, said first and second base members (21, 22) being part of the support platform; a plurality of arches that are spaced apart and fixedly connected to the first and second base members (21, 22) and that extend across the gap, said plurality of arches being part of the support platform; a strongback that is attached to and movable along the first and second base members (21, 22), the strongback comprising a curved shape that matches the plurality of arches, the strongback further comprising clamps configured to engage with the frame; first and second tension devices configured to apply waterline tension force to side edges of the skin at the strongback; and fingers positioned along each of the arches and extending outward beyond the arches to contact against and support the skin, each of the fingers comprising a body that is connected to one of the arches and an enlarged head at an end of the body and configured to contact against the skin; wherein each of the arches comprises a central section centered on an apex and lateral sections positioned on each side of the central section, the fingers of the arches along the central section having a fixed position and the fingers of the arches along the lateral sections being movable relative to the arches.
A method for producing a three-dimensional object by means of additive construction in a direct construction sequence from at least one solidifiable material, which, for processing, is prepared and liquefied into a fluid phase by means of a plastifying unit, that is used in injection moulding of plastics, and which hardens after being applied from a discharge unit, wherein the solidifiable material for discharging drops of at least one material component is subject to a pressure in the material reservoir of at least 10 MPa, wherein the at least one material component is discharged under pressure in the direct construction sequence in a manner programmable by way of a control apparatus, wherein already parts of the material are mated with each other as a result of the discharge, and wherein the at least one material component produces structurally different regions of the three-dimensional object, wherein the geometric relationships that are obtained during discharge of the fluid phase of the solidifiable material already correspond to the final geometric relationships of the three-dimensional object, characterised in that configuration criteria for the structurally different regions of the object are predetermined and transmitted to the control apparatus on the basis of a selection, that the discharge unit is controlled by the control apparatus, during discharge of the at least one material component for the different regions of the object, on the basis of the selected configuration criteria for configuring a spatial structure which is desired for the respective region of the object, wherein, within the spatial structure, the at least one material component is applied drop by drop to produce a homogeneous and/or closest packing of spheres, and that therewith the final geometric relationships are obtained externally and also inside the three-dimensional object.
A controllable conduction device comprising: a conduction path; a floating gate for controlling flow of charge carriers along the conduction path, the floating gate comprising: a first floating gate part (13 1); and a second floating gate part (13 2), wherein the first floating gate part comprises a non-magnetically-ordered material and which is disposed closer to the conduction path than the second floating gate part; and the second floating gate part is disposed further away from the conduction path than the first floating gate part and which is conductively coupled to the first floating gate part; a control electrode which comprises a non-magnetically-ordered material and which is capacitively coupled to the second floating gate part; characterised in that the second floating gate part comprises a magnetically-ordered material. a conduction path; a floating gate for controlling flow of charge carriers along the conduction path, the floating gate comprising: a first floating gate part (13 1); and a second floating gate part (13 2), wherein the first floating gate part comprises a non-magnetically-ordered material and which is disposed closer to the conduction path than the second floating gate part; and the second floating gate part is disposed further away from the conduction path than the first floating gate part and which is conductively coupled to the first floating gate part; a control electrode which comprises a non-magnetically-ordered material and which is capacitively coupled to the second floating gate part; characterised in that the second floating gate part comprises a magnetically-ordered material. a first floating gate part (13 1); and a second floating gate part (13 2), wherein the first floating gate part comprises a non-magnetically-ordered material and which is disposed closer to the conduction path than the second floating gate part; and the second floating gate part is disposed further away from the conduction path than the first floating gate part and which is conductively coupled to the first floating gate part; a control electrode which comprises a non-magnetically-ordered material and which is capacitively coupled to the second floating gate part; characterised in that the second floating gate part comprises a magnetically-ordered material.
A measurement system for analyte determination, having: - an analytical device which is configured to determine an analyte measurement value for a presented bodily fluid specimen, - a fingerprint sensor device which is configured to record fingerprint sensor signals for one or more users, and - a control device which is data-linked to the analytical device and to the fingerprint sensor device, wherein the control device is configured - to carry out a user identification using recorded fingerprint sensor signals and, upon successful user identification, to enable a determination, using the analytical device, of an analyte measurement value for an identified user, and characterized in that the control device is furthermore configured - to evaluate the recorded fingerprint sensor signals and optionally additional recorded fingerprint sensor signals in addition to the user identification and independently of taking into account electronic information regarding successful user identification, in order to provide control signals for carrying out additional measurement system functions, - to identify one or more fingers of a human hand during the additional evaluation of the recorded fingerprint sensor signals and to provide control signals allocated as a function of the identified finger or all identified fingers, - to carry out the additional evaluation of the recorded fingerprint sensor signals and to provide the control signals during and/or after the analyte measurement value determination for the presented bodily fluid specimen by means of the analytical device. - an analytical device which is configured to determine an analyte measurement value for a presented bodily fluid specimen, - a fingerprint sensor device which is configured to record fingerprint sensor signals for one or more users, and - a control device which is data-linked to the analytical device and to the fingerprint sensor device, - to carry out a user identification using recorded fingerprint sensor signals and, upon successful user identification, to enable a determination, using the analytical device, of an analyte measurement value for an identified user, and characterized in that the control device is furthermore configured - to evaluate the recorded fingerprint sensor signals and optionally additional recorded fingerprint sensor signals in addition to the user identification and independently of taking into account electronic information regarding successful user identification, in order to provide control signals for carrying out additional measurement system functions, - to identify one or more fingers of a human hand during the additional evaluation of the recorded fingerprint sensor signals and to provide control signals allocated as a function of the identified finger or all identified fingers, - to carry out the additional evaluation of the recorded fingerprint sensor signals and to provide the control signals during and/or after the analyte measurement value determination for the presented bodily fluid specimen by means of the analytical device.
Method for measuring counting rates (ZR1, ZR2, ZR3, ZR4) or measured variables dependent on the counting rates for determining a density profile of at least two substances with different densities arranged within a container by means of a plurality of detectors (41, 42, 43, 44), the method comprising the steps of: a) in each case recording respective gamma rays which have in each case penetrated at least partially through at least one of the substances, by means of the detectors (41, 42, 43, 44), and b) in each case generating a respective counting rate (ZR1, ZR2, ZR3, ZR4) or a respective measured variable dependent on the counting rate only on the basis of respectively recorded gamma rays of which the respective gamma energy is greater than or equal to an energy threshold value, the energy threshold value being a minimum of 0.5 times a Compton energy value of a Compton gap of the gamma rays, - the method comprising the step of: in each case emitting respective gamma rays with a discrete isotope gamma energy into at least one of the substances by means of a plurality of radiation sources (31, 32, 33, 34), the Compton energy value being less than the isotope gamma energy. a) in each case recording respective gamma rays which have in each case penetrated at least partially through at least one of the substances, by means of the detectors (41, 42, 43, 44), and b) in each case generating a respective counting rate (ZR1, ZR2, ZR3, ZR4) or a respective measured variable dependent on the counting rate only on the basis of respectively recorded gamma rays of which the respective gamma energy is greater than or equal to an energy threshold value, the energy threshold value being a minimum of 0.5 times a Compton energy value of a Compton gap of the gamma rays, - the method comprising the step of: in each case emitting respective gamma rays with a discrete isotope gamma energy into at least one of the substances by means of a plurality of radiation sources (31, 32, 33, 34), the Compton energy value being less than the isotope gamma energy. - the method comprising the step of: in each case emitting respective gamma rays with a discrete isotope gamma energy into at least one of the substances by means of a plurality of radiation sources (31, 32, 33, 34), the Compton energy value being less than the isotope gamma energy.
Device for administering a liquid medical formulation which is held in a container inserted in the device and is expelled from the device through at least one nozzle opening, wherein, before flowing through the at least one nozzle opening, the liquid medical formulation flows through a very fine filter which is formed by a microstructured component, and wherein a pre-filter is arranged in front of the microstructured component inside the device, in the flow path of the liquid, wherein a fine filter is additionally arranged between the pre-filter and the microstructured component in the flow path of the liquid, wherein the fine filter is different from the pre-filter, so that particles of different sizes or natures are deposited on the pre-filter and fine filter in each case before the formulation enters the microstructured component, and wherein the pre-filter, fine filter and very fine filter are made of different materials, characterised in that one of the filters is made of titanium in the form of a sintered metal.
A method of making a cut adhesive article, comprising: providing an adhesive article having a covalently crosslinked pressure sensitive adhesive layer disposed on a substrate, embossing a surface of the covalently crosslinked pressure sensitive adhesive layer to form a microstructured covalently crosslinked pressure sensitive adhesive layer having a microstructured adhesive surface, and die cutting the microstructured covalently crosslinked pressure sensitive adhesive layer. providing an adhesive article having a covalently crosslinked pressure sensitive adhesive layer disposed on a substrate, embossing a surface of the covalently crosslinked pressure sensitive adhesive layer to form a microstructured covalently crosslinked pressure sensitive adhesive layer having a microstructured adhesive surface, and die cutting the microstructured covalently crosslinked pressure sensitive adhesive layer.
An infusion pump comprising: an inlet valve; an outlet valve; a squeezing element located between the inlet valve and the outlet valve and configured to squeeze a fluid line coupled to the infusion pump; a pressure sensor; and electric circuitry configured to: (i) perform at least one round of valve operation check prior to initiation of a delivery session of fluid to a subject, characterized in that the electric circuitry is further configured to: (ii) subsequently to (i), in an air detection phase that occurs after an intake phase and before a delivery phase of at least one infusion pump cycle during a delivery session of fluid to the subject, determine, for the at least one infusion pump cycle, an absolute amount of air in the fluid line, wherein the at least one round of valve operation check and the determining of the amount of air in the fluid line each comprise the electric circuitry performing the steps of: triggering closing the inlet valve to confine a section of the fluid line between the inlet valve and the outlet valve; triggering squeezing, utilizing the squeezing element, of the confined section of the fluid line; measuring the pressure within the confined section of the fluid line; and subsequently, triggering relieving of the pressure in the confined section of the fluid line, and wherein the at least one round of valve operation check further comprises the electric circuitry repeating the performance of steps - a plurality of times. an inlet valve; an outlet valve; a squeezing element located between the inlet valve and the outlet valve and configured to squeeze a fluid line coupled to the infusion pump; a pressure sensor; and electric circuitry configured to: (i) perform at least one round of valve operation check prior to initiation of a delivery session of fluid to a subject, (i) perform at least one round of valve operation check prior to initiation of a delivery session of fluid to a subject, wherein the at least one round of valve operation check and the determining of the amount of air in the fluid line each comprise the electric circuitry performing the steps of: triggering closing the inlet valve to confine a section of the fluid line between the inlet valve and the outlet valve; triggering squeezing, utilizing the squeezing element, of the confined section of the fluid line; measuring the pressure within the confined section of the fluid line; and subsequently, triggering relieving of the pressure in the confined section of the fluid line, and triggering closing the inlet valve to confine a section of the fluid line between the inlet valve and the outlet valve; triggering squeezing, utilizing the squeezing element, of the confined section of the fluid line; measuring the pressure within the confined section of the fluid line; and subsequently, triggering relieving of the pressure in the confined section of the fluid line, and wherein the at least one round of valve operation check further comprises the electric circuitry repeating the performance of steps - a plurality of times.
A memory device comprising an antiferromagnet, an insulator and an electrode arranged in a tunnel junction configuration characterised in that the memory device does not include a ferromagnet such that the antiferromagnet is not coupled to a ferromagnet.
A compound selected from: (3 S)-Tetrahydrofuran-3-yl (4 S)-4-isopropyl-1,4,6,7-tetrahydro-5H-imidazo[4,5-c]-pyridine-5-carboxylate mesylate, and (3 S)-Tetrahydrofuran-3-yl (4 S)-4-isopropyl-1,4,6,7-tetrahydro-5H-imidazo[4,5-c]-pyridine-5-carboxylate sulfate 1.5 hydrate. (3 S)-Tetrahydrofuran-3-yl (4 S)-4-isopropyl-1,4,6,7-tetrahydro-5H-imidazo[4,5-c]-pyridine-5-carboxylate mesylate, and (3 S)-Tetrahydrofuran-3-yl (4 S)-4-isopropyl-1,4,6,7-tetrahydro-5H-imidazo[4,5-c]-pyridine-5-carboxylate sulfate 1.5 hydrate.
A solid photoelectric conversion element comprising: a first electrode; a hole blocking layer; an electron transport layer; a first hole transport layer; and a second electrode, wherein the first hole transport layer comprises an organic hole transport material and characterized in that the first hole transport layer comprises at least one of basic compounds selected from Compound Nos. 6 to 31: Compound No. 6 Compound No. 7 Compound No. 8 Compound No. 9 Compound No. 10 Compound No. 11 Compound No. 12 J2.748.250C Compound No. 13 Compound No. 14 Compound No. 15 J174K J236.412C J50.635D Compound No. 16 Compound No. 17 Compound No. 18 J880.469I J1.983.963J Compound No. 19 Compound No. 20 Compound No. 21 Compound No. 22 Compound No. 23 Compound No. 24 Compound No. 25 Compound No. 26 Compound No. 27 Compound No. 28 Compound No. 29 Compound No. 30 Compound No. 31 and wherein the electron transport layer comprises an electron transport material, and the electron transport material comprises at least one selected from the group consisting of titanium oxide, zinc oxide, tin oxide, and niobium oxide. a first electrode; a hole blocking layer; an electron transport layer; a first hole transport layer; and a second electrode, wherein the first hole transport layer comprises an organic hole transport material and characterized in that the first hole transport layer comprises at least one of basic compounds selected from Compound Nos. 6 to 31: Compound No. 6 Compound No. 7 Compound No. 8 Compound No. 9 Compound No. 10 Compound No. 11 Compound No. 12 J2.748.250C Compound No. 13 Compound No. 14 Compound No. 15 J174K J236.412C J50.635D Compound No. 16 Compound No. 17 Compound No. 18 J880.469I J1.983.963J Compound No. 19 Compound No. 20 Compound No. 21 Compound No. 22 Compound No. 23 Compound No. 24 Compound No. 25 Compound No. 26 Compound No. 27 Compound No. 28 Compound No. 29 Compound No. 30 Compound No. 31 and wherein the electron transport layer comprises an electron transport material, and the electron transport material comprises at least one selected from the group consisting of titanium oxide, zinc oxide, tin oxide, and niobium oxide.
A jointed rotor blade assembly for a wind turbine, the jointed rotor blade assembly comprising: a first blade segment including a first outer shell, the first outer shell terminating at a first joint end; a second blade segment coupled to the first blade segment at a blade joint defined between the first and second blade segments, the second blade segment including a second outer shell terminating at a second joint end, the first and second outer shells overlapping one another at the blade joint such that an overlapping region is defined between the first and second joint ends, the first outer shell being spaced apart from the second outer shell along at least a portion of the overlapping region such that a gap is defined between the first and second outer shells within the overlapping region; a sealing member positioned between the first and second outer shells within the overlapping region so as to extend across the gap defined between the first and second outer shells, the sealing member being configured to allow relative movement between the first and second outer shells at the blade joint; and a sealant material substantially filling at least a portion of the gap defined between the first and second outer shells. a first blade segment including a first outer shell, the first outer shell terminating at a first joint end; a second blade segment coupled to the first blade segment at a blade joint defined between the first and second blade segments, the second blade segment including a second outer shell terminating at a second joint end, the first and second outer shells overlapping one another at the blade joint such that an overlapping region is defined between the first and second joint ends, the first outer shell being spaced apart from the second outer shell along at least a portion of the overlapping region such that a gap is defined between the first and second outer shells within the overlapping region; a sealing member positioned between the first and second outer shells within the overlapping region so as to extend across the gap defined between the first and second outer shells, the sealing member being configured to allow relative movement between the first and second outer shells at the blade joint; and a sealant material substantially filling at least a portion of the gap defined between the first and second outer shells.
A hinge assembly in the form of a toggle type hinge with an arm assembly anchorable in use to a first member and a hinge cup pivotally connected thereto for movement about a hinge axis and anchorable in use to a planar face of second member, at least one linearly reciprocable damping device operable to produce a damped resistive force, and a mechanism for converting hinging movement of the hinge assembly into actuation of the at least one damping device, with the at least one damping device being mounted outside the hinge cup and being accommodated within a void space in said second member, wherein the hinge cup is provided with an aperture in its sidewall to allow engagement between the mechanism and the damping device, characterised in that the at least one damping device is arranged within the void space in said second member with its axis of linear reciprocation lying at an acute angle with respect to the planar face of the second member.