mhurhangee/ep-ind-claims huggingface dataset:
A flowmeter, comprising: a tool body; one or more spinner arms (120, 120') configured to extend with a first end (122, 122') away from the tool body and having a second end (124, 124') joined to the tool body, when deployed to measure a fluid flow; and a helical blade (130, 130') mounted on each of the spinner arms (120, 120'), the helical blade (130, 130') being configured to rotate due to a fluid flowing substantially parallel to a longitudinal axis of the tool body, around a rotation axis (135, 135') extending along the spinner arm (120, 120') on which the helical blade (130, 130') is mounted, between the first end (122, 122') and the second end (124, 124'). a tool body; one or more spinner arms (120, 120') configured to extend with a first end (122, 122') away from the tool body and having a second end (124, 124') joined to the tool body, when deployed to measure a fluid flow; and a helical blade (130, 130') mounted on each of the spinner arms (120, 120'), the helical blade (130, 130') being configured to rotate due to a fluid flowing substantially parallel to a longitudinal axis of the tool body, around a rotation axis (135, 135') extending along the spinner arm (120, 120') on which the helical blade (130, 130') is mounted, between the first end (122, 122') and the second end (124, 124').
A seal assembly comprising: a housing; a support tube disposed within the housing; and a shape memory alloy foil disposed within the housing, surrounding the support tube a first bag positioned on an inner surface of the shape memory alloy foil surrounding the support tube to define a first chamber between the first bag and the support tube, wherein the first chamber is configured to store a motor fluid, and a second bag positioned surrounding an outer surface of the shape memory alloy foil to define a second chamber between the first bag and the second bag; wherein the shape memory alloy foil is positioned between the first bag and the second bag to restrict a flow of a wellbore fluid to the motor fluid. a housing; a support tube disposed within the housing; and a shape memory alloy foil disposed within the housing, surrounding the support tube a first bag positioned on an inner surface of the shape memory alloy foil surrounding the support tube to define a first chamber between the first bag and the support tube, wherein the first chamber is configured to store a motor fluid, and a second bag positioned surrounding an outer surface of the shape memory alloy foil to define a second chamber between the first bag and the second bag; wherein the shape memory alloy foil is positioned between the first bag and the second bag to restrict a flow of a wellbore fluid to the motor fluid.
A method in a dryer section of a fibre-web machine, such as a paper or board machine, in which dryer section of the fibre-web machine at least one drying group employs single-wire draw in which a paper web that is being dried runs on support of a drying wire such that the drying wire presses the web on a drying cylinder against heated cylinder surfaces, and the web remains at the side of the outside curve of reversing cylinders situated between drying cylinders (10, 12), and in which drying group a pocket space is formed between two adjacent drying cylinders and a reversing cylinder situated between them and the drying wire, the method comprising the method steps of producing a negative pressure in at least one pocket space of the drying group by means of a negative pressure component placed in the pocket space to create a pressure difference over the drying wire and the web for attaching the web to the drying wire such that the cross-direction shrinkage of the web is controllable, and sealing the pocket space by means of mechanical seals (25, 26) arranged in connection with the negative pressure component and placed towards the surface of the adjacent drying cylinders (10, 12) to maintain the negative pressure in the pocket space, characterized by the further method steps of passing the web from the drying cylinder to the reversing cylinder and from the reversing cylinder to the next drying cylinder as a short transfer formed between points of contact of a tangent common to the respective drying cylinder (10; 12) and the reversing cylinder such that the length of which transfer is smaller than or equal to 500 mm; and maintaining the tension of the drying wire at a level of at least 3 kN/m to help to control the cross-direction shrinkage of the web.
A method for fusing a radar image in response to radar pulses transmitted to a region of interest, a transmitter transmits the radar pulses toward the ROI and a set of distributed receivers to receive a set of reflections from the ROI, the method comprising: receiving the set of reflections from at least one target located in the ROI, each reflection is recorded by a receiver from the set of distributed receivers at a corresponding time and at a corresponding coarse location, wherein the coarse locations include unknown position errors; aligning the set of reflections on a time scale using the corresponding coarse locations of the set of distributed receivers to produce a time projection of the set of reflections for the at least one target; fitting a line into data points formed from radar pulses in the set of reflections received from the set of distributed receivers, the pulses corresponding to the same target that the set of reflections are aligned in time, assuming that the average of the position errors is zero; determining a distance between the fitted line and each data point; adjusting the coarse location of the set of distributed receivers on a virtual array using the corresponding distance between the fitted line and each data point; and fusing the radar image using the set of reflections received at the adjusted coarse location of the set of distributed receivers, wherein steps of the method are performed by a processor. receiving the set of reflections from at least one target located in the ROI, each reflection is recorded by a receiver from the set of distributed receivers at a corresponding time and at a corresponding coarse location, wherein the coarse locations include unknown position errors; aligning the set of reflections on a time scale using the corresponding coarse locations of the set of distributed receivers to produce a time projection of the set of reflections for the at least one target; fitting a line into data points formed from radar pulses in the set of reflections received from the set of distributed receivers, the pulses corresponding to the same target that the set of reflections are aligned in time, assuming that the average of the position errors is zero; determining a distance between the fitted line and each data point; adjusting the coarse location of the set of distributed receivers on a virtual array using the corresponding distance between the fitted line and each data point; and fusing the radar image using the set of reflections received at the adjusted coarse location of the set of distributed receivers, wherein steps of the method are performed by a processor.
A transmission with a transmission housing, in the interior of which at least one intermeshed gear pair is arranged, said gear pair being formed from a first gear wheel with a first toothing and a second gear wheel with a second toothing, wherein a separating insert is arranged in the transmission housing, said separating insert dividing the interior of the transmission housing into a first chamber and a second chamber, wherein the first and the second toothing (11, 21) of the first and second gear wheels (10, 20) are arranged in the first chamber, the first chamber circularly surrounds the second chamber, the separating insert cooperates with the second gear wheel and thereby forms a sealing means, which is designed to retain a lubricant in the first chamber, wherein the separating insert is arranged directly adjacent the first and second gear wheel (10, 20) in the axial direction and has a gear wheel mount, which encloses the toothing of the first gear wheel, at least in sections, and wherein the second gear wheel and the separating insert have at least one peripheral protrusion and one peripheral groove corresponding to the protrusion, and are characterized in that the protrusion engages the groove without contact such that the protrusion and the groove form a labyrinth seal as the sealing means.
A set of connectors for connecting at least two support elements, forming a modular support platform for solar modules, comprising: - A connector element type 1 with a cross shape comprising four connection ports for connecting up to four support elements, and four lateral reinforcements in between each two connection ports, wherein: - Each connection port is formed by a hole in the surface of each of the branches of the cross forming the connector element, which is configured to position and fix a support element by means of a connection mechanism; and - Each lateral reinforcement extends between each branch of the cross and comprises two connection holes in the proximity of said connection ports it is linking, for further fixation of the support element by means of a connection mechanism; and - A connector element type 2 with a rectangular shape made of the same material as connector element type 1 comprising a reticulate surface and two connection ports for connecting up to two support elements, wherein - each connection port is formed by a hole in the surface of the rectangular shaped connector element along a central longitudinal axis, which is configured to position and fix a support element by means of a connection mechanism. - A connector element type 1 with a cross shape comprising four connection ports for connecting up to four support elements, and four lateral reinforcements in between each two connection ports, wherein: - Each connection port is formed by a hole in the surface of each of the branches of the cross forming the connector element, which is configured to position and fix a support element by means of a connection mechanism; and - Each lateral reinforcement extends between each branch of the cross and comprises two connection holes in the proximity of said connection ports it is linking, for further fixation of the support element by means of a connection mechanism; and - Each connection port is formed by a hole in the surface of each of the branches of the cross forming the connector element, which is configured to position and fix a support element by means of a connection mechanism; and - Each lateral reinforcement extends between each branch of the cross and comprises two connection holes in the proximity of said connection ports it is linking, for further fixation of the support element by means of a connection mechanism; and - A connector element type 2 with a rectangular shape made of the same material as connector element type 1 comprising a reticulate surface and two connection ports for connecting up to two support elements, wherein - each connection port is formed by a hole in the surface of the rectangular shaped connector element along a central longitudinal axis, which is configured to position and fix a support element by means of a connection mechanism. - each connection port is formed by a hole in the surface of the rectangular shaped connector element along a central longitudinal axis, which is configured to position and fix a support element by means of a connection mechanism.
An orthodontic implant structure comprising: an upper structure body having an insertion hole (10e: 11d); a pair of bolts (2, 2A, 2B) of which each bolt (2, 2A. 2B) having a head thread portion at one end side in the lengthwise axial direction, a locking portion, an engaging portion, and an embedding thread portion at the other end side in the lengthwise axial direction in this order; a base plate (3, 6) that has a projecting thread portion (31, 36) over which the insertion hole (10e: 11d) can be fitted and a plurality of locking holes (32, 33; 62, 63), with each of the locking holes (32, 33; 62, 63) capable of allowing insertion of the head thread portion and the locking portion of each bolt but not capable of allowing insertion of the engaging portion, so that by locking with the locking portion rotation of the locking portion about the lengthwise axial line is blocked; first screwing members (4, 4A, 4B) that can be screwed onto the head thread portions; and a second screwing member that can be screwed onto the projecting thread portion (31,61), wherein the locking portions of the pair of bolts (2, 2A, 2B) to be embedded in the jaw and the locking holes (32, 33; 62, 63) of the base plate (3, 6) are locked, the first screwing members (4, 4A, 4B) are screwed onto the head thread portions, the insertion hole (10e: 11d) of the upper structure body is fitted over the projecting thread portion (31, 61) of the base plate (3, 6), and the second screwing member is screwed onto the projecting thread portion (31, 61). an upper structure body having an insertion hole (10e: 11d); a pair of bolts (2, 2A, 2B) of which each bolt (2, 2A. 2B) having a head thread portion at one end side in the lengthwise axial direction, a locking portion, an engaging portion, and an embedding thread portion at the other end side in the lengthwise axial direction in this order; a base plate (3, 6) that has a projecting thread portion (31, 36) over which the insertion hole (10e: 11d) can be fitted and a plurality of locking holes (32, 33; 62, 63), with each of the locking holes (32, 33; 62, 63) capable of allowing insertion of the head thread portion and the locking portion of each bolt but not capable of allowing insertion of the engaging portion, so that by locking with the locking portion rotation of the locking portion about the lengthwise axial line is blocked; first screwing members (4, 4A, 4B) that can be screwed onto the head thread portions; and a second screwing member that can be screwed onto the projecting thread portion (31,61), wherein the locking portions of the pair of bolts (2, 2A, 2B) to be embedded in the jaw and the locking holes (32, 33; 62, 63) of the base plate (3, 6) are locked, the first screwing members (4, 4A, 4B) are screwed onto the head thread portions, the insertion hole (10e: 11d) of the upper structure body is fitted over the projecting thread portion (31, 61) of the base plate (3, 6), and the second screwing member is screwed onto the projecting thread portion (31, 61).
A pallet configured to hold and transport a plurality of glass substrates in a substantially vertical orientation through a sputtering apparatus (100, 100b), the pallet comprising: a frame comprising an aperture; and an adjustable grid array within the aperture, the adjustable grid array configurable to hold the plurality of glass substrates of different shapes and/or sizes at the same time, each along at least two edges, and in the substantially vertical orientation during transport through the sputtering apparatus (100, 100b), wherein the adjustable grid array comprises a system of vertical support bars (210, 255), the vertical support bars (210, 255) slidably engaged with grid mounts at top and bottom inner edges of the frame, the vertical support bars (210, 255) configured to support the plurality of glass substrates along their vertical edges. a frame comprising an aperture; and an adjustable grid array within the aperture, the adjustable grid array configurable to hold the plurality of glass substrates of different shapes and/or sizes at the same time, each along at least two edges, and in the substantially vertical orientation during transport through the sputtering apparatus (100, 100b), wherein the adjustable grid array comprises a system of vertical support bars (210, 255), the vertical support bars (210, 255) slidably engaged with grid mounts at top and bottom inner edges of the frame, the vertical support bars (210, 255) configured to support the plurality of glass substrates along their vertical edges.
A car with "Targa top" body, comprising: a chassis a passenger compartment; a windshield, which defines the passenger compartment at the front and is enclosed by an upright rigidly connected to the chassis; a full-width roll bar, which defines the passenger compartment at the rear, is rigidly connected to the chassis, has an inverted "U" shape; a pair of seats, which are arranged inside the passenger compartment, between the windshield and the roll bar; and a rear parcel shelf, which is arranged inside the passenger compartment behind the seats; the car being characterized in that: said roll bar is provided with a fixed transparent rear window; said car is provided with a protection panel, which is arranged inside the passenger compartment in front of the transparent rear window, projects from the rear parcel shelf towards the roll bar, is completely air-tight and is fixed, namely is rigidly connected to the rear parcel shelf and cannot move with respect to the rear parcel shelf; and the protection panel has an upper edge, which is spaced from the roll bar so as to leave a free passage between the upper edge of the protection panel and the roll bar. a chassis a passenger compartment; a windshield, which defines the passenger compartment at the front and is enclosed by an upright rigidly connected to the chassis; a full-width roll bar, which defines the passenger compartment at the rear, is rigidly connected to the chassis, has an inverted "U" shape; a pair of seats, which are arranged inside the passenger compartment, between the windshield and the roll bar; and a rear parcel shelf, which is arranged inside the passenger compartment behind the seats; the car being characterized in that: said roll bar is provided with a fixed transparent rear window; said car is provided with a protection panel, which is arranged inside the passenger compartment in front of the transparent rear window, projects from the rear parcel shelf towards the roll bar, is completely air-tight and is fixed, namely is rigidly connected to the rear parcel shelf and cannot move with respect to the rear parcel shelf; and said roll bar is provided with a fixed transparent rear window; said car is provided with a protection panel, which is arranged inside the passenger compartment in front of the transparent rear window, projects from the rear parcel shelf towards the roll bar, is completely air-tight and is fixed, namely is rigidly connected to the rear parcel shelf and cannot move with respect to the rear parcel shelf; and
A 3D-printed scaffold comprising a peptide-polymer conjugate, the peptide-polymer conjugate having the structure: X-Y-Z-Y-X wherein X is a biologically active peptide; Y is a linker moiety comprising a maleimide functionalized compound and at least one of a hydroxyl-reactive group, an aromatic group, or an aliphatic chain; and Z is a biocompatible and biodegradable polymer.
A DMA controller reading data from a readable/writable storage medium, comprising: a reading start address register storing a reading start address from which reading starts; a reading data size register storing the size of data to be read in a single reading operation; an offset value register storing an offset value for updating the reading start address after the reading operation ends; characterized by further comprising: a repetition upper limit value register storing the upper limit value of the number of times of repetition of the reading operation; a repetition counter register storing the number of times of repetition of the reading operation; and end notification means outputting a given interrupt signal indicating that the processing of the DMA controller ends when the value stored in the repetition counter register reaches the value stored in the repetition upper limit value register; the end notification means further determines whether the data read in the reading operation match data specified in advance and, if the data match with each other, outputs the interrupt signal. a reading start address register storing a reading start address from which reading starts; a reading data size register storing the size of data to be read in a single reading operation; an offset value register storing an offset value for updating the reading start address after the reading operation ends; characterized by further comprising: a repetition upper limit value register storing the upper limit value of the number of times of repetition of the reading operation; a repetition counter register storing the number of times of repetition of the reading operation; and end notification means outputting a given interrupt signal indicating that the processing of the DMA controller ends when the value stored in the repetition counter register reaches the value stored in the repetition upper limit value register; the end notification means further determines whether the data read in the reading operation match data specified in advance and, if the data match with each other, outputs the interrupt signal. a repetition upper limit value register storing the upper limit value of the number of times of repetition of the reading operation; a repetition counter register storing the number of times of repetition of the reading operation; and end notification means outputting a given interrupt signal indicating that the processing of the DMA controller ends when the value stored in the repetition counter register reaches the value stored in the repetition upper limit value register; the end notification means further determines whether the data read in the reading operation match data specified in advance and, if the data match with each other, outputs the interrupt signal.
Mounting bearing for rotors, in particular magnetic bearing rotors, wherein the mounting bearing has: a fork, a rotor adjustment device which has a guide bolt, and an adjustment element, wherein the rotor adjustment device is designed to receive the rotor during the mounting of the rotor; and wherein the adjustment element is designed to adjust the vertical and/or horizontal position of the rotor received on the rotor adjustment device; wherein the guide bolt of the rotor adjustment device is displaceable vertically in the fork.
A process for the preparation of a sulfated form of a thyroid hormone having formula II (T 3 S) according to the following reaction: wherein: M is an alkaline metal, preferably Na; comprising the steps of: a) sulfation of a compound of formula I with chlorosulfonic acid in the presence of dimethylacetamide (DMAC); b) salification to give a compound of formula II, in an aqueous solution of an alkaline metal inorganic salt; c) purification of the formula II compound by chromatography on macroreticular aromatic polymeric matrix and elution with a decreasing polarity mixture of water and an organic solvent. M is an alkaline metal, preferably Na; comprising the steps of: a) sulfation of a compound of formula I with chlorosulfonic acid in the presence of dimethylacetamide (DMAC); b) salification to give a compound of formula II, in an aqueous solution of an alkaline metal inorganic salt; c) purification of the formula II compound by chromatography on macroreticular aromatic polymeric matrix and elution with a decreasing polarity mixture of water and an organic solvent. a) sulfation of a compound of formula I with chlorosulfonic acid in the presence of dimethylacetamide (DMAC); b) salification to give a compound of formula II, in an aqueous solution of an alkaline metal inorganic salt; c) purification of the formula II compound by chromatography on macroreticular aromatic polymeric matrix and elution with a decreasing polarity mixture of water and an organic solvent.