mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the position data of a target object in a reference system from an observation position spaced apart therefrom, comprising the steps of: a) providing a three-dimensional reference model of the environment of the target object using known geographical location data; b) aligning an image of the target object, which appears for an observer from the observation position, and the environment thereof, the image being supplied by an image capture means of an illumination device, using the three-dimensional reference model; c) determining the position data of the targeted target object in the three-dimensional reference model as relative position data for known location data of the three-dimensional reference model by way of a computing means of the illumination device; and d) conveying the relative position data to a missile so as to brief it, the alignment of the image of the target object and the environment thereof using the reference model in step b) taking place in the following sub-steps: b1) forming a three-dimensional line model from a three-dimensional reference model; b2) projecting the line model, on the basis of a rough position and attitude hypothesis, into the image, taken by the capture means, of the target object and the environment thereof; b3) aligning the lines of the three-dimensional line model with line segments extracted from the picture; and b4) calculating a correction to the position and attitude hypothesis from the alignment; wherein the correction ascertained in step b4) is taken into account in determining the position data of the target object in step c). a) providing a three-dimensional reference model of the environment of the target object using known geographical location data; b) aligning an image of the target object, which appears for an observer from the observation position, and the environment thereof, the image being supplied by an image capture means of an illumination device, using the three-dimensional reference model; c) determining the position data of the targeted target object in the three-dimensional reference model as relative position data for known location data of the three-dimensional reference model by way of a computing means of the illumination device; and d) conveying the relative position data to a missile so as to brief it, b1) forming a three-dimensional line model from a three-dimensional reference model; b2) projecting the line model, on the basis of a rough position and attitude hypothesis, into the image, taken by the capture means, of the target object and the environment thereof; b3) aligning the lines of the three-dimensional line model with line segments extracted from the picture; and b4) calculating a correction to the position and attitude hypothesis from the alignment;
A circulatory assist system for assisting the flow of blood through a patient circulatory system, comprising a cannula assembly for directing blood from a heart of the patient, the cannula assembly comprising a flexible cannula body including a proximal end, a distal end, and a lumen therebetween, a pump for drawing blood from the heart into the cannula body and dispensing the blood from the cannula body and into the patient circulatory system, the pump further including an inlet and an outlet, an outflow cannula configured to fluidicly communicate the outlet and an artery of a patient, and an adaptor device configured to fluidicly communicate the inlet and the cannula body, the adaptor device including a proximal portion, a distal portion, and a body therebetween, wherein the distal portion of the adaptor device is configured to couple with the proximal end of the cannula body and the proximal portion of the adaptor device is configured to couple with the inlet of the pump, wherein the adaptor device is generally curvilinear such that blood flowing into the distal portion of the adaptor device flows in a generally lateral direction relative to the patient and blood flowing out of the proximal portion of the adaptor device and into the inlet flows in a generally medial direction relative to the patient, characterized in that the body of the adaptor device includes a tapered portion between the proximal and distal portions (606, 604), the tapered portion defined as a decrease in inner diameter from a first inner diameter to a second inner diameter between the proximal and distal portions, respectively.
Combination preparation comprising glucosamine (as glucosamine hydrochloride or glucosamine sulphate; GA), chondroitin sulphate and nicotinamide adenine dinucleotide in oxidised form.
An anti-icing apparatus for a fuel pump comprising: an impeller spinner comprising: a head having a base at one end and a tip at an opposite end; and a shank having a body portion nearest the head with a first diameter and a fastener portion adjacent to the body portion at an end opposite the head with a second diameter, and characterized by the first diameter being greater than the second diameter and less than a diameter of the base of the head; a rotor shaft; an impeller having a first section, a second section, and a third section each having an inner radial surface, wherein a portion of the first inner radial surface is engaged with an outer radial surface of the rotor shaft and wherein the third section axially engages the rotor shaft and has an inner radial surface adjacent to the fastener portion of the impeller spinner; and a housing substantially surrounding the impeller and having an inlet; wherein the shank extends into both the impeller and a bore of the rotor shaft, such that the body portion is adjacent to the inner radial surface of the second section of the impeller, the fastener portion is engaged with an inner radial surface of the rotor shaft, and the head extends axially outward from an end of the second section of the impeller toward the inlet of the housing, wherein the base of the head and the end of the impeller are separated axially by a gap. a head having a base at one end and a tip at an opposite end; and a shank having a body portion nearest the head with a first diameter and a fastener portion adjacent to the body portion at an end opposite the head with a second diameter, and characterized by the first diameter being greater than the second diameter and less than a diameter of the base of the head; a rotor shaft; an impeller having a first section, a second section, and a third section each having an inner radial surface, wherein a portion of the first inner radial surface is engaged with an outer radial surface of the rotor shaft and wherein the third section axially engages the rotor shaft and has an inner radial surface adjacent to the fastener portion of the impeller spinner; and a housing substantially surrounding the impeller and having an inlet; wherein the shank extends into both the impeller and a bore of the rotor shaft, such that the body portion is adjacent to the inner radial surface of the second section of the impeller, the fastener portion is engaged with an inner radial surface of the rotor shaft, and the head extends axially outward from an end of the second section of the impeller toward the inlet of the housing, wherein the base of the head and the end of the impeller are separated axially by a gap.
A method for manufacturing a waveguide filter comprising: additive manufacturing of a core comprising at least one external face and internal faces defining a channel for filtering and guiding the waves, two opposed internal faces comprising each a plurality of slots in order to filter the waves passing through the channel; depositing a metal layer onto said internal faces of the core; wherein the longitudinal axis (z) of the channel of the waveguide filter is oriented vertically when it is manufactured, each slot thus comprising an upper face that is overhanging during manufacturing; the overhanging face of said slots being non-horizontal when the core is manufactured, characterized in that the plurality of slots of one of the opposed internal faces is aligned symmetrically with the plurality of slots of the other of the opposed internal faces with respect to a plane of symmetry equidistant from the two opposed internal faces. additive manufacturing of a core comprising at least one external face and internal faces defining a channel for filtering and guiding the waves, two opposed internal faces comprising each a plurality of slots in order to filter the waves passing through the channel; depositing a metal layer onto said internal faces of the core; wherein the longitudinal axis (z) of the channel of the waveguide filter is oriented vertically when it is manufactured, each slot thus comprising an upper face that is overhanging during manufacturing; the overhanging face of said slots being non-horizontal when the core is manufactured,
Electrode (1, 2) for a gas discharge lamp, wherein the electrode (1, 2) comprises a base body which encloses at least two chambers, wherein the chambers (221, 222) are hermetically, i.e. airtight or gas-tight sealed, characterized in that the chambers (221, 222, 223; K1 -K4) or at least part of the chambers are arranged in a longitudinal direction of the base body in series or parallel to each other.
Filter switching method for a machine control system having in each case a first and a second desired value filter (26, 28) during operation of a respectively associated drive means of a first and a second machine axis (10, 12), comprising the steps for the first machine axis: a) applying an input signal to the first desired value filter to generate a first output signal, which is output to the drive means; b) applying the input signal to the second desired value filter to generate a second output signal; c) determining a deviation between the first and the second output signals (23, 33) by means of a subtraction unit; d) immediately separating the first desired value filter from the drive means and connecting the second desired value filter to the drive means if the deviation in step (c) falls below an adjustable threshold value; wherein the first and second desired value filters (26, 28) have different running times, characterised in that steps a) to d) are also carried out for the second machine axis, wherein the first desired value filter is separated from the drive means and the second desired value filter is connected to the drive means essentially simultaneously in the case of the first and second machine axes (10, 12), and the first desired value filter is separated from, and the second desired value filter is accordingly connected to the drive means of the first and second machine axes (10, 12) if the two deviations simultaneously fall below their respective threshold value in the case of both machine axes (10, 12). a) applying an input signal to the first desired value filter to generate a first output signal, which is output to the drive means; b) applying the input signal to the second desired value filter to generate a second output signal; c) determining a deviation between the first and the second output signals (23, 33) by means of a subtraction unit; d) immediately separating the first desired value filter from the drive means and connecting the second desired value filter to the drive means if the deviation in step (c) falls below an adjustable threshold value;
An antifog-film-coated article comprising a hard substrate, and a water-absorbing composite film formed on the substrate, characterized in that the water-absorbing composite film contains a polyvinyl acetal resin; colloidal silica in an amount of 30 to 80 parts by mass on the basis of 100 parts by mass of the resin; and silica-equivalent particles derived from a hydrolysis product or partial hydrolysis product of a silicon alkoxide compound in a silica-equivalent amount of 5 to 55 parts by mass on the basis of 100 parts by mass of the resin, wherein the silica-equivalent amount is calculated from the amount of the silicon alkoxide employed, under the assumption that 1 mol of SiO 2 is formed from 1 mol of the silicon alkoxide, wherein a surfactant is dispersed in the water-absorbing composite film and wherein the colloidal silica is SiO 2 fine particles having an average particle size of 5 to 50 nm.
An automated coverslipper for mounting a coverslip on a slide, comprising: at least one coverslip; at least one slide containing a biological specimen; and at least one lifter head (110, 111, 1210, 1310, 1510, 1610) comprising a plate having a bottom surface (120, 121, 1320, 1620) with at least three individually controlled suction cups (130-135, 1230, 1232, 1234, 1330, 1332, 1334, 1530, 1532, 1534, 1630, 1632, 1634) arranged thereon, each of said suction cups being fluidly connected, by way of a gas conduit (140, 142, 144), to a pneumatics module, which includes a vacuum source, a pressure source, a pressure sensor, and an independently operable control-valve for each gas conduit, said pneumatics module being configured to supply an independent vacuum or pressurized gas to each suction cup to enable the lifter head to pick up, transport, and deposit the coverslip on the slide, and wherein at least one of said independently operable control-valves is configured to allow both an immediate release of vacuum and a gradual release of vacuum, wherein the bottom surface of the lifter head has a shape selected from the group consisting of concave, convex, dual chamfer and combinations thereof. at least one coverslip; at least one slide containing a biological specimen; and at least one lifter head (110, 111, 1210, 1310, 1510, 1610) comprising a plate having a bottom surface (120, 121, 1320, 1620) with at least three individually controlled suction cups (130-135, 1230, 1232, 1234, 1330, 1332, 1334, 1530, 1532, 1534, 1630, 1632, 1634) arranged thereon, each of said suction cups being fluidly connected, by way of a gas conduit (140, 142, 144), to a pneumatics module, which includes a vacuum source, a pressure source, a pressure sensor, and an independently operable control-valve for each gas conduit, said pneumatics module being configured to supply an independent vacuum or pressurized gas to each suction cup to enable the lifter head to pick up, transport, and deposit the coverslip on the slide, and wherein at least one of said independently operable control-valves is configured to allow both an immediate release of vacuum and a gradual release of vacuum, wherein the bottom surface of the lifter head has a shape selected from the group consisting of concave, convex, dual chamfer and combinations thereof.
A method for co-production of two or more isoprenoids, the method comprising: a. culturing, in a culture medium, a host cell genetically modified with one or more heterologous nucleic acids encoding one or more enzymes in a first biosynthetic pathway to produce a first isoprenoid and with one or more heterologous nucleic acids encoding one or more enzymes in a second biosynthetic pathway to produce a second isoprenoid, which has a molecular weight that is different from the first isoprenoid; and b. recovering the first isoprenoid; and c. recovering the second isoprenoid, wherein the first isoprenoid is a sesquiterpene and the second isoprenoid is a carotenoid, wherein a carbon flux towards the production of carotenoid is reduced compared to a carbon flux towards the production of sesquiterpene. a. culturing, in a culture medium, a host cell genetically modified with one or more heterologous nucleic acids encoding one or more enzymes in a first biosynthetic pathway to produce a first isoprenoid and with one or more heterologous nucleic acids encoding one or more enzymes in a second biosynthetic pathway to produce a second isoprenoid, which has a molecular weight that is different from the first isoprenoid; and b. recovering the first isoprenoid; and c. recovering the second isoprenoid, wherein the first isoprenoid is a sesquiterpene and the second isoprenoid is a carotenoid, wherein a carbon flux towards the production of carotenoid is reduced compared to a carbon flux towards the production of sesquiterpene.
Plate production system having a storage container for storing a flowable material and having an attachment distributor device for the flowable material and in particular for an attachment material, wherein the attachment distributor device has a distributor body which can be at least partially immersed in the flowable material, wherein this distributor body can be moved in an immersion direction, with a drive device (13, 13a) for effecting this movement in the immersion direction, wherein an immersion depth of the distributor body in the flowable material can be adjusted by means of an adjusting device, wherein this adjusting device has a drive device, and the plate production system has a transport device which can be moved relative to this attachment distributor device for transporting the flowable material and/or the storage container, characterized in that the plate production system further comprises a measuring device for measuring an amount of the flowable material present in the storage container.
A battery module comprising: a module case including a lower plate and a sidewall forming an inside space; and a plurality of battery cells provided in the inside space of the module case; characterized in that: the battery module further comprises: a resin layer provided in the inside space of the module case, wherein the resin layer is in contact with each of the plurality of battery cells and also in contact with the lower plate or the sidewall of the module case, wherein the sidewall or the lower plate in contact with the resin layer comprises a thermally conductive region, wherein a contact ratio of the resin layer to the thermally conductive region is 80% or more of the entire area of the thermally conductive region, wherein the resin layer is an adhesive layer which is bonded to the battery cells and the module case which comprises thermally conductive fillers, and wherein the adhesive layer has an adhesion strength of from 0.05 to 0.98 N/mm (50 to 1000 gf/10 mm). a module case including a lower plate and a sidewall forming an inside space; and a plurality of battery cells provided in the inside space of the module case; characterized in that: the battery module further comprises: a resin layer provided in the inside space of the module case, wherein the resin layer is in contact with each of the plurality of battery cells and also in contact with the lower plate or the sidewall of the module case, wherein the sidewall or the lower plate in contact with the resin layer comprises a thermally conductive region, wherein a contact ratio of the resin layer to the thermally conductive region is 80% or more of the entire area of the thermally conductive region, wherein the resin layer is an adhesive layer which is bonded to the battery cells and the module case which comprises thermally conductive fillers, and wherein the adhesive layer has an adhesion strength of from 0.05 to 0.98 N/mm (50 to 1000 gf/10 mm). a resin layer provided in the inside space of the module case, wherein the resin layer is in contact with each of the plurality of battery cells and also in contact with the lower plate or the sidewall of the module case, wherein the sidewall or the lower plate in contact with the resin layer comprises a thermally conductive region, wherein a contact ratio of the resin layer to the thermally conductive region is 80% or more of the entire area of the thermally conductive region, wherein the resin layer is an adhesive layer which is bonded to the battery cells and the module case which comprises thermally conductive fillers, and wherein the adhesive layer has an adhesion strength of from 0.05 to 0.98 N/mm (50 to 1000 gf/10 mm).
A method for purifying nucleic acids from a biological sample, comprising the following steps: a) collecting the sample in a first sample vessel in an aqueous solution and lysing the sample under nonchaotropic conditions; b) suspending first magnetic particles in the solution; c) placing the first sample vessel into a sample vessel holder, wherein the sample vessel is placed into the annular interior space of a ring magnet associated with the sample vessel holder; d) separating the solution from the magnetic particles, and e) isolating the nucleic acids from the solution, wherein, when placing the first sample vessel into the annular interior space of the ring magnet associated with the sample vessel holder, the respective sample vessel is moved at least once out of the annular space and back in again by means of movement in the direction of the ring axis. a) collecting the sample in a first sample vessel in an aqueous solution and lysing the sample under nonchaotropic conditions; b) suspending first magnetic particles in the solution; c) placing the first sample vessel into a sample vessel holder, wherein the sample vessel is placed into the annular interior space of a ring magnet associated with the sample vessel holder; d) separating the solution from the magnetic particles, and e) isolating the nucleic acids from the solution,
Method of acknowledgement of receipt of a command sent by a management device of a system for controlling domestic appliances by radiofrequency signals, such that each domestic appliance broadcasts over a geographical zone a carrier signal bearing an acknowledgement information item, the method comprising: - a step of reception by each domestic appliance situated in the geographical zone of a carrier signal bearing an acknowledgement information item (IACK), said acknowledgement information item comprising inter alia an acknowledgement-of-receipt information item which reflects whether each domestic appliance for which said command is destined has or has not received this command, - a step of updating by each domestic appliance of the acknowledgement-of-receipt information item included in an acknowledgement information item that it has received on the basis of an update information item which reflects whether this domestic appliance has or has not previously received said command, - a step of sending by each domestic appliance of a carrier signal bearing an acknowledgement information item (IACK) which comprises inter alia the acknowledgement-of-receipt information item thus updated, - a step of receipt by the management device of each carrier signal bearing an acknowledgement information item (IACK), and - a step of updating by the management device of the acknowledgement-of-receipt information items (IARB) that it has previously stored on the basis of the acknowledgement-of-receipt information items included in the acknowledgement information items received. - a step of reception by each domestic appliance situated in the geographical zone of a carrier signal bearing an acknowledgement information item (IACK), said acknowledgement information item comprising inter alia an acknowledgement-of-receipt information item which reflects whether each domestic appliance for which said command is destined has or has not received this command, - a step of updating by each domestic appliance of the acknowledgement-of-receipt information item included in an acknowledgement information item that it has received on the basis of an update information item which reflects whether this domestic appliance has or has not previously received said command, - a step of sending by each domestic appliance of a carrier signal bearing an acknowledgement information item (IACK) which comprises inter alia the acknowledgement-of-receipt information item thus updated, - a step of receipt by the management device of each carrier signal bearing an acknowledgement information item (IACK), and - a step of updating by the management device of the acknowledgement-of-receipt information items (IARB) that it has previously stored on the basis of the acknowledgement-of-receipt information items included in the acknowledgement information items received.