mhurhangee/ep-ind-claims huggingface dataset:
A turbine engine comprising at least a power transmission system, in particular for a turbine engine such as an airplane turboprop or turbojet, the system comprising a transmission shaft connected to a drive shaft by connection means, e.g. such as bevel gears, and that drive equipment or accessories, the system being characterized in that the transmission shaft is designed to operate under supercritical conditions and includes damper means for damping vibration at its resonant speed, and in that the transmission shaft extends within a radial arm of an intermediate casing.
A stable pharmaceutical lyophilized formulation prepared by lyophilizing an aqueous preparation comprising: (i) at least 10 mg/mL hybrid Fc fused G-CSF; (ii) at least one stabilizer in the form of a combination of trehalose and sorbitol wherein a weight ratio of the trehalose dihydrate to the sorbitol is between 2:1 and 4:1; (iii) at least one poloxamer-based non-ionic surfactant; and (iv) an acetate buffer; wherein the pH value of the aqueous preparation is between 3.8 and 5.2. (i) at least 10 mg/mL hybrid Fc fused G-CSF; (ii) at least one stabilizer in the form of a combination of trehalose and sorbitol wherein a weight ratio of the trehalose dihydrate to the sorbitol is between 2:1 and 4:1; (iii) at least one poloxamer-based non-ionic surfactant; and (iv) an acetate buffer;
Brush core in the shape of a roller, composed of double-walled, radial segmental parts, which after mounting form said roller in which means are provided for receiving brush elements on obtained outer surface, after which a cylindrical brush roller with a cylindrical inner wall and a cylindrical outer wall is obtained to mount on a brush machine in order to brush large surfaces, wherein said cylindrical inner wall and said cylindrical outer wall are coupled together by two different types of ribs (12, 13) and said outer wall is provided with outwardly extending wall parts with connection blocks in order to receive said brush elements between them, characterized in that the means for coupling said double-walled segmental parts consist of thick-walled lips with zigzag shaped support surfaces, which can be clamped onto each other by means of a screw connection, which is completely restricted to the inner diameter of the brush core.
A method for controlling the fixation of a treatment material being applied to a thread during a continuous in-line thread consuming process, the method comprising: performing a thread treatment process, forming part of the thread consuming process, by: i) applying a treatment material to the thread; and ii) applying an amount of energy to the thread to at least partly fix the applied treatment material to the thread; wherein the method is characterised by: controlling the amount of energy being applied to the thread as a response to a detected operational status of the in-line thread consuming process, wherein controlling the amount of energy is performed by moving the source of the applied energy relative the thread in order to reduce the amount of energy being applied to the thread, and/or by moving the thread away from the source of the applied energy in order to reduce the amount of energy being applied to the thread, wherein the thread is moved by a thread guiding unit that moves in a transverse direction. performing a thread treatment process, forming part of the thread consuming process, by: i) applying a treatment material to the thread; and ii) applying an amount of energy to the thread to at least partly fix the applied treatment material to the thread; wherein the method is characterised by: i) applying a treatment material to the thread; and ii) applying an amount of energy to the thread to at least partly fix the applied treatment material to the thread; wherein the method is characterised by: controlling the amount of energy being applied to the thread as a response to a detected operational status of the in-line thread consuming process, wherein controlling the amount of energy is performed by moving the source of the applied energy relative the thread in order to reduce the amount of energy being applied to the thread, and/or by moving the thread away from the source of the applied energy in order to reduce the amount of energy being applied to the thread, wherein the thread is moved by a thread guiding unit that moves in a transverse direction.
A wheel holding member (10, 20) for a vehicle, which has a rod shape, and is to be removably mounted to a wheel hub, the wheel holding member being configured to hold a wheel under a state in which the holding member is mounted to the wheel hub, the wheel holding member comprising: a thread portion, which is formed on one end portion side in an axial direction, and has a male thread formed on an outer peripheral surface thereof, the male thread being threadedly engageable with a hub bolt hole formed in the wheel hub; a first portion, which extends toward a side opposite to the one end portion of the thread portion, and is insertable through a hub-bolt insertion hole formed in the wheel, characterized in that at least the thread portion has a tool insertion hole, which is opened at an end surface of the one end portion, and into which a tool for rotating the wheel holding member (10, 20) for a vehicle is insertable, and wherein the tool insertion hole is formed such that a bottom surface of the tool insertion hole is located on an outer side in a vehicle width direction with respect to a surface of the wheel hub in which the hub bolt hole is formed under a state in which the thread portion is threadedly engaged with the hub bolt hole. a thread portion, which is formed on one end portion side in an axial direction, and has a male thread formed on an outer peripheral surface thereof, the male thread being threadedly engageable with a hub bolt hole formed in the wheel hub; a first portion, which extends toward a side opposite to the one end portion of the thread portion, and is insertable through a hub-bolt insertion hole formed in the wheel, characterized in that at least the thread portion has a tool insertion hole, which is opened at an end surface of the one end portion, and into which a tool for rotating the wheel holding member (10, 20) for a vehicle is insertable, and wherein the tool insertion hole is formed such that a bottom surface of the tool insertion hole is located on an outer side in a vehicle width direction with respect to a surface of the wheel hub in which the hub bolt hole is formed under a state in which the thread portion is threadedly engaged with the hub bolt hole.
A roller assembly for spreading and chilling a web, the web being arranged in a printing press, the roller assembly comprising: a roller for chilling and spreading a web; characterized in that the roller assembly comprises a trolley roller contacting the roller, the trolley roller configured and arranged to impart a deflection in the roller. a roller for chilling and spreading a web; characterized in that the roller assembly comprises a trolley roller contacting the roller, the trolley roller configured and arranged to impart a deflection in the roller.
A diffuser, comprising: a hub; a shroud; and characterised in that the diffuser comprises: a row of vanes that includes a plurality of first and second partial height vanes, each of the first partial height vanes affixed to the hub and each of the second partial height vanes affixed to the shroud, wherein each of the first partial height vanes are circumferentially offset from adjacent ones of the second partial height vanes and positioned around a circumference of the diffuser in an alternating arrangement, wherein each of the first and second partial height vanes (812, 814) have a leading edge, the leading edges of the first and second partial height vanes (812, 814) being substantially aligned in a flowwise direction, wherein the row of vanes includes at least one full height vane. a hub; a shroud; and characterised in that the diffuser comprises: a row of vanes that includes a plurality of first and second partial height vanes, each of the first partial height vanes affixed to the hub and each of the second partial height vanes affixed to the shroud, wherein each of the first partial height vanes are circumferentially offset from adjacent ones of the second partial height vanes and positioned around a circumference of the diffuser in an alternating arrangement, wherein each of the first and second partial height vanes (812, 814) have a leading edge, the leading edges of the first and second partial height vanes (812, 814) being substantially aligned in a flowwise direction, wherein the row of vanes includes at least one full height vane.
Hot forming line for producing heat-formed and press-hardened sheet steel products as motor vehicle components, having a heating device and a forming device, wherein the heating device has a temperature control station having an upper tool and a lower tool and exchangeable temperature control plates for the conductive temperature control are arranged on the upper tool and/or on the lower tool, wherein the temperature control plates can be heated or cooled by a temperature control source of the temperature control station, characterised in that regions of a first type and regions of a second type at mutually different temperatures are temperature-controlled with the temperature control plates, wherein the regions of a first type have direct contact with the temperature control plates when the temperature control station is closed and a spacing is formed in the regions of the second type between the component surface and the temperature control plate or the tool surface, or in that an insulation material is arranged in the temperature control plates in the regions of the second type.
A magnetic pole position detection device of a permanent magnet-type synchronous motor for detecting, through a current draw-in operation, an amount of deviation between an origin of a magnetic pole position of a permanent magnet that makes up a rotor of a permanent magnet-type synchronous motor, and an origin of an output signal of a magnetic pole position sensor, and correcting the output signal of the magnetic pole position sensor on the basis of the amount of deviation, to thereby detect a true magnetic pole position, the detection device comprising: a draw-in current computing unit that computes a phase current I a; and an I d computing unit that computes a d-axis current in a virtual magnetic flux axial direction from the phase current I a, wherein the current draw-in operation is performed by causing the d-axis current computed by the I d computing unit to flow through armature windings of the motor, to thereby draw the rotor to the magnetic flux axial direction; characterized in that said draw-in current computing unit computes the phase current I a so as to satisfy I a =Ψ a /2(L q -L d), using an effective value Ψ a of armature interlinkage magnetic flux by the permanent magnet per phase of the motor, a d-axis inductance L d in the virtual magnetic flux axial direction and a q-axis inductance L q in a direction perpendicular to the magnetic flux axial direction, which are constituent components of the inductance of the motor. a draw-in current computing unit that computes a phase current I a; and an I d computing unit that computes a d-axis current in a virtual magnetic flux axial direction from the phase current I a, wherein the current draw-in operation is performed by causing the d-axis current computed by the I d computing unit to flow through armature windings of the motor, to thereby draw the rotor to the magnetic flux axial direction; characterized in that said draw-in current computing unit computes the phase current I a so as to satisfy I a =Ψ a /2(L q -L d), using an effective value Ψ a of armature interlinkage magnetic flux by the permanent magnet per phase of the motor, a d-axis inductance L d in the virtual magnetic flux axial direction and a q-axis inductance L q in a direction perpendicular to the magnetic flux axial direction, which are constituent components of the inductance of the motor.
A position controller for controlling a rotation center of a tilting head to which a tool is secured in a machining center, comprising: an offset attachment having a body combined to the tilting head and a spherical contact secured to the body; an offset detector built in the machining center such that the offset detector selectively move out into a process area of the machining center and automatically detects a tool offset from a contact point with the spherical contact as a position error of a tip point of the tool in a numerical controller of the machining center; an offset data processor connected to the offset detector and individually storing at least a pair of first tool offset (T1(x1,z1)) and second tool offset (T2(x2, z2)) that are detected from first and second rotation positions of the tilting head, respectively; and an operator connected to the offset data processor and obtaining a center error between an actual position of the rotation center and a control position of the rotation center that is algorithmically calculated in the numerical controller by a difference of rotational transforms of the first tool offset (T1(x1,z1)) between when the tilting head is rotated with respect to the actual position and when the tilting head is rotated with respect to the control position. an offset attachment having a body combined to the tilting head and a spherical contact secured to the body; an offset detector built in the machining center such that the offset detector selectively move out into a process area of the machining center and automatically detects a tool offset from a contact point with the spherical contact as a position error of a tip point of the tool in a numerical controller of the machining center; an offset data processor connected to the offset detector and individually storing at least a pair of first tool offset (T1(x1,z1)) and second tool offset (T2(x2, z2)) that are detected from first and second rotation positions of the tilting head, respectively; and an operator connected to the offset data processor and obtaining a center error between an actual position of the rotation center and a control position of the rotation center that is algorithmically calculated in the numerical controller by a difference of rotational transforms of the first tool offset (T1(x1,z1)) between when the tilting head is rotated with respect to the actual position and when the tilting head is rotated with respect to the control position.
A cryogenic cooler comprising: - at least one pressure and flow wave generator, - at least one cold finger comprising a cold area, the pressure and flow wave generator being fluidly connected to the cold finger, - at least one heat transfer fluid circuit, - at least one application heat exchanger configured to exchange calories with at least one device to be cooled, characterized in that the cooler comprises at least: - a first non-return valve and a second non-return valve positioned in the circuit, at least one non-return valve (150, 151) among the first and second non-return valves (150, 151) being a passive non-return valve, the first non-return valve and the second non-return valve being fluidly connected with a cold finger, - the at least one application heat exchanger comprising at least one first fluid input positioned downstream of the first non-return valve in the direction of circulation of the heat transfer fluid, and at least one first fluid output positioned upstream of the second non-return valve in the direction of circulation of the heat transfer fluid. - at least one pressure and flow wave generator, - at least one cold finger comprising a cold area, the pressure and flow wave generator being fluidly connected to the cold finger, - at least one heat transfer fluid circuit, - at least one application heat exchanger configured to exchange calories with at least one device to be cooled, - a first non-return valve and a second non-return valve positioned in the circuit, at least one non-return valve (150, 151) among the first and second non-return valves (150, 151) being a passive non-return valve, the first non-return valve and the second non-return valve being fluidly connected with a cold finger, - the at least one application heat exchanger comprising at least one first fluid input positioned downstream of the first non-return valve in the direction of circulation of the heat transfer fluid, and at least one first fluid output positioned upstream of the second non-return valve in the direction of circulation of the heat transfer fluid.
Apparatus for changing an abrasive sheet in a sanding machine, said apparatus comprising: - a sanding machine consisting of: - a support body having an engagement surface arranged to engage with said abrasive sheet; - a handling device for handling spatially said support body according to at least two degrees of freedom; said apparatus characterized in that it furthermore comprises at least one application station, at which an abrasive sheet is mounted at said engagement surface of said support body, in that at said application station at least one container is provided arranged to contain at least one abrasive sheet, in that said handling device is arranged to position said support body at said container, in order to cause an abrasive sheet to engage with said engagement surface of said support body, in that a spatial orientation computing device is, furthermore, provided arranged to compute the spatial orientation of said support body, said spatial orientation computing device configured to bring said support body at a position having a known spatial orientation, in that said handling device is arranged to position said support body at said spatial orientation computing device with said support body free to rotate about a rotation axis, and in that said spatial orientation computing device comprises an actuation member (63, 64, 65) arranged to cause said support body to rotate about said rotation axis up to place said support body at said position having a known spatial orientation. - a sanding machine consisting of: - a support body having an engagement surface arranged to engage with said abrasive sheet; - a handling device for handling spatially said support body according to at least two degrees of freedom; - a support body having an engagement surface arranged to engage with said abrasive sheet; - a handling device for handling spatially said support body according to at least two degrees of freedom;
A yarn winding machine comprising: an air spinning device configured to form a yarn with airflow; a winding device configured to wind the yarn formed by the air spinning device to form a package; a yarn storage device disposed between the air spinning device and the winding device and configured to wind the yarn from the air spinning device around an outer peripheral surface of a yarn storage roller thereby temporarily storing the yarn; a drive part configured to rotate the package in the winding device; and a control part configured to perform storage-amount maintaining control of maintaining a storage amount of the yarn in the yarn storage device within a predetermined storage range by repeatedly performing acceleration control and deceleration control, the acceleration control being increasing rotation speed of the drive part to a range upper-limit speed equal to or higher than a storage-amount decreasing speed that is a lower limit value at which the storage amount of the yarn in the yarn storage device can be reduced, the deceleration control being reducing the rotation speed of the drive part to a range lower-limit speed equal to or lower than a storage-amount increasing speed that is an upper limit value at which the storage amount of the yarn in the yarn storage device can be increased, characterized in that the control part is configured to perform storage-amount decreasing control of increasing the rotation speed of the drive part to a first set speed that is higher than the range upper-limit speed after winding of the package is started. an air spinning device configured to form a yarn with airflow; a winding device configured to wind the yarn formed by the air spinning device to form a package; a yarn storage device disposed between the air spinning device and the winding device and configured to wind the yarn from the air spinning device around an outer peripheral surface of a yarn storage roller thereby temporarily storing the yarn; a drive part configured to rotate the package in the winding device; and a control part configured to perform storage-amount maintaining control of maintaining a storage amount of the yarn in the yarn storage device within a predetermined storage range by repeatedly performing acceleration control and deceleration control, the acceleration control being increasing rotation speed of the drive part to a range upper-limit speed equal to or higher than a storage-amount decreasing speed that is a lower limit value at which the storage amount of the yarn in the yarn storage device can be reduced, the deceleration control being reducing the rotation speed of the drive part to a range lower-limit speed equal to or lower than a storage-amount increasing speed that is an upper limit value at which the storage amount of the yarn in the yarn storage device can be increased, characterized in that the control part is configured to perform storage-amount decreasing control of increasing the rotation speed of the drive part to a first set speed that is higher than the range upper-limit speed after winding of the package is started.
Double-belt heating press with upper and lower press tables which are formed as roller tables and have supporting rollers for carrying tubes supported on said rollers transversely to the transporting direction of workpieces, on which carrying tubes there roll microwave-permeable transporting belts, and rod-shaped microwave antennas, which are arranged parallel between adjacent carrying tubes of a roller table, and bridging of the gaps between the carrying tubes, which by means of a shielding is impermeable to radiation and is electrically conducting, characterized in that the shielding consists of contact tubes, which are electrically conducting or are provided with such electrically conducting surfaces and are mounted without any gap respectively between two adjacent carrying tubes, rolling on the latter.
A method for manufacturing a glass-ceramic composite, the method comprising: grinding a set of raw materials to fine powder, wherein the set of raw materials comprises waste glass cullet and a whitening agent; sieving the fine powder for filtering out particles having diameter more than 90 microns; mixing the fine powder with a predefined amount of water to obtain a homogeneous mixture; shaping the homogenous mixture; drying the homogenous mixture in response to shaping; and firing the homogenous mixture at a temperature of 750°C to 1100°C for a period of 15 minutes to 1 hour, with a rate of 5°C per minute to 50°C per minute,wherein the whitening agent is selected from the group consisting of calcium fluoride (CaF 2) and mixture of α-quartz (SiO 2) and limestone (CaCO 3) in stoichiometric ratio of 1:1, wherein the set of raw materials comprises 65 wt% to 95 wt% of waste glass cullet and 5 wt% to 35 wt% of the whitening agent. grinding a set of raw materials to fine powder, wherein the set of raw materials comprises waste glass cullet and a whitening agent; sieving the fine powder for filtering out particles having diameter more than 90 microns; mixing the fine powder with a predefined amount of water to obtain a homogeneous mixture; shaping the homogenous mixture; drying the homogenous mixture in response to shaping; and firing the homogenous mixture at a temperature of 750°C to 1100°C for a period of 15 minutes to 1 hour, with a rate of 5°C per minute to 50°C per minute,wherein the whitening agent is selected from the group consisting of calcium fluoride (CaF 2) and mixture of α-quartz (SiO 2) and limestone (CaCO 3) in stoichiometric ratio of 1:1, wherein the set of raw materials comprises 65 wt% to 95 wt% of waste glass cullet and 5 wt% to 35 wt% of the whitening agent.