mhurhangee/ep-ind-claims huggingface dataset:
An ion guide or ion trap comprising: a plurality of electrodes; AC or RF voltage means arranged and adapted to apply an AC or RF voltage to at least some of said plurality of electrodes in order to confine at least some ions radially within said ion guide or ion trap; first means arranged and adapted to maintain a DC or electrostatic electric field across at least a portion of the axial length of said ion guide or ion trap in order to confine at least some ions axially within an axial ion trapping region of said ion guide or ion trap, wherein said DC or electrostatic electric field is substantially non-linear across one or more portions of said axial ion trapping region, wherein the axial trapping potential deviates from being quadratic at the ends of said axial ion trapping region; and second means arranged and adapted to apply a supplemental AC voltage or potential to said electrodes for exciting ions in a first mode of operation, wherein the fundamental or resonance frequency of the ions changes as the amplitude of oscillation of ions increases. a plurality of electrodes; AC or RF voltage means arranged and adapted to apply an AC or RF voltage to at least some of said plurality of electrodes in order to confine at least some ions radially within said ion guide or ion trap; first means arranged and adapted to maintain a DC or electrostatic electric field across at least a portion of the axial length of said ion guide or ion trap in order to confine at least some ions axially within an axial ion trapping region of said ion guide or ion trap, wherein said DC or electrostatic electric field is substantially non-linear across one or more portions of said axial ion trapping region, wherein the axial trapping potential deviates from being quadratic at the ends of said axial ion trapping region; and second means arranged and adapted to apply a supplemental AC voltage or potential to said electrodes for exciting ions in a first mode of operation, wherein the fundamental or resonance frequency of the ions changes as the amplitude of oscillation of ions increases.
Phase ring assembly comprising a support ring carrying a plurality of phase rings provided with connection arms that are bent to the phase rings, wherein said connection arms are placed between the phase rings and the support ring, and the support ring has recessed seats housing said connection arms, characterized in that the phase rings are supported by clamping brackets on the cylindrical outer surface of the support ring, and in that the connection arms are closer to a center of the support ring than the phase ring.
Hand-operated power tool (10a-10c), in particular hacksaw or eccentric grinder, with a casing (28a-28c), with a tool holder (14a-14c) for holding a tool (15a-15c), and a drive (22a-22c) with a motor (11a-11c) for driving the tool holder (14a-14c) to make an oscillating movement and/or a rotation movement relative to the casing (28a-28c), and a control unit (40a-40c) for controlling the drive (22a-22c), wherein it has position detection means (50a-50c) for generating a position signal depending on at least one position of the tool holder (14a-14c) relative to the casing (28a-28c), characterised in that the control unit (40a-40c) is designed to stop the motor (11a-11c) at a predetermined or settable stopping position of the tool holder (14a-14c) relative to the casing (28a-28c), depending on the position signal.
A method to obtain soluble edible calcium from pearl through separation, featuring the following steps: 1) Smash the pearl powder into nm-level particles and add 5 to 10 portions of deionized water. Apply pressure of 0.5 to 20MPa at a temperature of 30 to 60°C, so as to obtain microemulsion of the pearl powder; 2) Carry out electroosmosis of the pearl powder emulsion at a pressure of 30 to 40V and velocity of 60 to 80L/h. Put deionized water in the thick water tank and pearl powder emulsion in the fresh water tank. The volume ratio of deionized water to pearl powder emulsion is 1:15 to 1:2. Carry out circulated decalcification for 1 to 3 hours. The saline solution containing calcium and pearl protein solution are obtained through separation; 3) The calcium-containing saline solution can be used as the raw material of soluble edible calcium or soluble edible calcium; 4) Add the pearl protein solution obtained into homogeneous phosphate buffer with pH of 6.5 to 7.5 with volume 5 to 20 times of the pearl protein solution; 5) Carry out pre-treatment for 20 to 60 minutes at temperature of 100 to 120°C and pressure of 0.15 to 0.2MPa. Then put the mixed liquor into a reactive pan and add neutral protease with system quality of 0.5% to 2%. Allow it to undergo enzymic catalytic reaction for 4 to 8 hours at temperature of 40 to 70°C. Afterwards, boiling water bath is used as a means of enzyme deactivation for 5 to 15 minutes. Centrifuge the mixed liquor and remove the liquid supernatant to obtain the pearl compound whitening factor solution. 1) Smash the pearl powder into nm-level particles and add 5 to 10 portions of deionized water. Apply pressure of 0.5 to 20MPa at a temperature of 30 to 60°C, so as to obtain microemulsion of the pearl powder; 2) Carry out electroosmosis of the pearl powder emulsion at a pressure of 30 to 40V and velocity of 60 to 80L/h. Put deionized water in the thick water tank and pearl powder emulsion in the fresh water tank. The volume ratio of deionized water to pearl powder emulsion is 1:15 to 1:2. Carry out circulated decalcification for 1 to 3 hours. The saline solution containing calcium and pearl protein solution are obtained through separation; 3) The calcium-containing saline solution can be used as the raw material of soluble edible calcium or soluble edible calcium; 4) Add the pearl protein solution obtained into homogeneous phosphate buffer with pH of 6.5 to 7.5 with volume 5 to 20 times of the pearl protein solution; 5) Carry out pre-treatment for 20 to 60 minutes at temperature of 100 to 120°C and pressure of 0.15 to 0.2MPa. Then put the mixed liquor into a reactive pan and add neutral protease with system quality of 0.5% to 2%. Allow it to undergo enzymic catalytic reaction for 4 to 8 hours at temperature of 40 to 70°C. Afterwards, boiling water bath is used as a means of enzyme deactivation for 5 to 15 minutes. Centrifuge the mixed liquor and remove the liquid supernatant to obtain the pearl compound whitening factor solution.
A method for providing a biological arrangement, comprising: (a) providing, ex vivo, at least one acceptor biological structure; (b) providing, ex vivo, at least one donor tissue; (c) removing, ex vivo, at least one portion of the at least one donor tissue; (d) removing, ex vivo, at least one portion of the at least one acceptor biological structure, wherein the at least one removed portion of the at least one acceptor biological structure has a size that is substantially similar to a size of the at least one removed portion of the at least one donor tissue; (e) inserting the at least one removed portion of the at least one donor tissue into the at least one acceptor biological structure at a location substantially corresponding to the at least one removed portion of the at least one acceptor biological structure; (f) heating the at least one acceptor biological structure after the at least one removed portion of the at least one donor tissue is inserted into the at least one acceptor biological structure; and (g) at least one of pushing or compressing the at least one acceptor biological structure, while the at least one acceptor biological structure is heated, so as to form a substantially flat surface thereon. (a) providing, ex vivo, at least one acceptor biological structure; (b) providing, ex vivo, at least one donor tissue; (c) removing, ex vivo, at least one portion of the at least one donor tissue; (d) removing, ex vivo, at least one portion of the at least one acceptor biological structure, wherein the at least one removed portion of the at least one acceptor biological structure has a size that is substantially similar to a size of the at least one removed portion of the at least one donor tissue; (e) inserting the at least one removed portion of the at least one donor tissue into the at least one acceptor biological structure at a location substantially corresponding to the at least one removed portion of the at least one acceptor biological structure; (f) heating the at least one acceptor biological structure after the at least one removed portion of the at least one donor tissue is inserted into the at least one acceptor biological structure; and (g) at least one of pushing or compressing the at least one acceptor biological structure, while the at least one acceptor biological structure is heated, so as to form a substantially flat surface thereon.
A method for producing exosomes or exosome-like vesicles comprising a gene silencing nucleic acid, a nucleic acid of interest, or a precursor thereof, said method comprising: - introducing into an exosome-producing cell, or expressing in an exosome-producing cell, a nucleic acid construct comprising the gene silencing nucleic acid, nucleic acid of interest, or a precursor thereof, incorporated within a pre-miR-451 structural mimic; the gene silencing nucleic acid, nucleic acid of interest, or the precursor thereof having a length of about 12 - 32 nucleotides (nt); - producing exosomes or exosome-like vesicles from the cell; and - optionally, collecting or enriching the produced exosomes or exosome-like vesicles. - introducing into an exosome-producing cell, or expressing in an exosome-producing cell, a nucleic acid construct comprising the gene silencing nucleic acid, nucleic acid of interest, or a precursor thereof, incorporated within a pre-miR-451 structural mimic; the gene silencing nucleic acid, nucleic acid of interest, or the precursor thereof having a length of about 12 - 32 nucleotides (nt); - producing exosomes or exosome-like vesicles from the cell; and - optionally, collecting or enriching the produced exosomes or exosome-like vesicles.
An aluminium casting alloy which contains the following alloy components Si: 3.0 to 3.8 wt% Mg: 0.3 to 0.6 wt% Cr: 0.05 to <0.25 wt% Fe: < 0.18 wt% Mn: < 0.06 wt% Ti: < 0.16 wt% Cu: < 0.006 wt% Sr: 0.010 to 0.030 Zr <0.006 wt% Zn <0.006 wt% impurities: < 0.1 wt% and is respectively supplemented with aluminium up to 100 wt%. Si: 3.0 to 3.8 wt% Mg: 0.3 to 0.6 wt% Cr: 0.05 to <0.25 wt% Fe: < 0.18 wt% Mn: < 0.06 wt% Ti: < 0.16 wt% Cu: < 0.006 wt% Sr: 0.010 to 0.030 Zr <0.006 wt% Zn <0.006 wt% impurities: < 0.1 wt% and is respectively supplemented with aluminium up to 100 wt%.
A computer-implemented method performed on at least one processor, comprising: evaluating whether a resource label which has been associated to a resource based on a classification of the resource is up-to-date, wherein the resource label is not up-to-date if a change to content of the resource, a change to a location of the resource, a change to a classification rule, or a state change to one or more classification rules, or any combination of said changes has occurred; and if the resource label is not up-to-date,, performing a reclassification of the resource leading to a modified resource label; and determining access to the resource based on a policy decoupled from the resource, including evaluating the modified resource label associated with the resource against a user claim associated with an access request. evaluating whether a resource label which has been associated to a resource based on a classification of the resource is up-to-date, wherein the resource label is not up-to-date if a change to content of the resource, a change to a location of the resource, a change to a classification rule, or a state change to one or more classification rules, or any combination of said changes has occurred; and if the resource label is not up-to-date,, performing a reclassification of the resource leading to a modified resource label; and determining access to the resource based on a policy decoupled from the resource, including evaluating the modified resource label associated with the resource against a user claim associated with an access request. performing a reclassification of the resource leading to a modified resource label; and determining access to the resource based on a policy decoupled from the resource, including evaluating the modified resource label associated with the resource against a user claim associated with an access request.
A device to sustain a plasma using a total argon gas flow of less than about five liter per minute, comprising: a torch body (910; 990); and an inductive device comprising at least one flat plate electrode or a load coil surrounding the torch body configured to provide radio frequency energy, characterised in that the device comprises: at least one capacitive device positioned between the inductive device and the torch body (910; 990), the capacitive device comprising a first plate and a second plate; and a first power source (950; 960) configured to provide power to the inductive device and/or power to the capacitive device, in which device the inductive device and the capacitive device are configured to together provide simultaneous coupling of both inductive and capacitive RF energies to sustain the plasma. a torch body (910; 990); and an inductive device comprising at least one flat plate electrode or a load coil surrounding the torch body configured to provide radio frequency energy, characterised in that the device comprises: at least one capacitive device positioned between the inductive device and the torch body (910; 990), the capacitive device comprising a first plate and a second plate; and a first power source (950; 960) configured to provide power to the inductive device and/or power to the capacitive device, in which device the inductive device and the capacitive device are configured to together provide simultaneous coupling of both inductive and capacitive RF energies to sustain the plasma. at least one capacitive device positioned between the inductive device and the torch body (910; 990), the capacitive device comprising a first plate and a second plate; and a first power source (950; 960) configured to provide power to the inductive device and/or power to the capacitive device, in which device the inductive device and the capacitive device are configured to together provide simultaneous coupling of both inductive and capacitive RF energies to sustain the plasma.
A shuttle for moving along a track in a first direction to open a shutter door and in a second direction, opposite to the first direction, to close the shutter door, comprising: a locking mechanism for switching between an engaged position where the shuttle is engaged with a drive belt and a disengaged position where the shuttle is disengaged from the drive belt, such that movement of the shuttle along the track by the drive belt can only occur when in the engaged position; an engaging means for engaging and disengaging with the drive belt, a channel for the drive belt to run through; wherein the locking mechanism and the engaging means are located in a transverse plane of the shuttle, the transverse plane being within the height (h") of the channel, wherein the shuttle has a first end nearest the shutter door in use and a second end opposite the first end, and wherein the locking mechanism is located between the engaging means and the second end of the shuttle, wherein the locking mechanism is configured to engage with an end of the engaging means nearest the second end of the shuttle, wherein a releasing means (30, 38) is provided, at least in part, outside the shuttle for releasing the engaging means from the engaged position; and the releasing means is configured to push on the locking mechanism such that the locking mechanism is pivoted away from the engaging means to release the engaging means from the engaged position, or the releasing means is configured to pull on the locking mechanism such that the locking mechanism is pivoted away from the engaging means to release the engaging means from the engaged position. a locking mechanism for switching between an engaged position where the shuttle is engaged with a drive belt and a disengaged position where the shuttle is disengaged from the drive belt, such that movement of the shuttle along the track by the drive belt can only occur when in the engaged position; an engaging means for engaging and disengaging with the drive belt, a channel for the drive belt to run through; wherein the locking mechanism and the engaging means are located in a transverse plane of the shuttle, the transverse plane being within the height (h") of the channel, wherein the shuttle has a first end nearest the shutter door in use and a second end opposite the first end, and wherein the locking mechanism is located between the engaging means and the second end of the shuttle, wherein the locking mechanism is configured to engage with an end of the engaging means nearest the second end of the shuttle, wherein a releasing means (30, 38) is provided, at least in part, outside the shuttle for releasing the engaging means from the engaged position; and the releasing means is configured to push on the locking mechanism such that the locking mechanism is pivoted away from the engaging means to release the engaging means from the engaged position, or the releasing means is configured to pull on the locking mechanism such that the locking mechanism is pivoted away from the engaging means to release the engaging means from the engaged position.
A method for producing bricks having different lengths and widths, wherein a first brick which comprises a first width and a second brick which comprises a second width differing from the first width, is produced, wherein each brick comprises an essentially cubical body which has a height, a length and a width, wherein each cubical body comprises several, at least two cavities (8, 9) having a length (a, c) and a width (b) and being separated from each other by webs (11, 12), which cavities at least partially serve to receive an insulating material, wherein each brick is produced from a starting material while forming the cavities, characterized in that all cavities (8, 9) of the bricks having a different width are produced with an identical width (b) and preferably a defined volume by means of respectively one predetermined width of the webs (11, 12) between the cavities (8, 9), and that the width of each cubical body corresponds to an integer fraction, in particular 1/1, 1/2 or 1/3 of the thickness of a wall made of a plurality of bricks.
Steering device for a vehicle having at least one actuating element which pivots at least one steerable vehicle wheel about a steering angle, which can be pre-determined via a steering wheel as steering angle determiner controllable by a vehicle occupant, wherein the actuating element has a wheel-side rotary member and an axle-side rotary member which are rotatable to one another around their rotation axes (27, 28), and wherein for establishing the steering angle of the vehicle wheel the wheel-side rotary member when rotating the two rotary members (23, 25) is moveable about the pivoting angle ( φ) with respect to the axle-side rotary member, wherein the actuating element is integrated in a hub carrier of a wheel suspension of the vehicle, characterised in that the hub carrier has one wheel-side supporting element rotatably supporting a vehicle wheel and one axle-side supporting element, between which one actuating element is inserted, and the two rotary members (23, 25) are rotatably supported via pivot bearings and/or rolling bearings at the respective support elements (17, 19), and that to each of the two rotary members (23, 25) is assigned as actuating drive respectively one rotation motor (38, 39), which is disposed within and/or outside the respective rotary member (23, 25), that between the wheel-side supporting element and the axle-side supporting element is inserted a coupling element by means of which a torque, for example a brake torque, can be transmitted from the wheel-side supporting element onto the axle-side supporting element, and that the controlling of the rotation motors (38, 39) is effected via the steering wheel with a steer-by-wire-system, in which a steering movement of the vehicle occupant is detected via a sensor system by a manual torque actuator assigned to the steering wheel, the movement signal of which is processed in a control device, and that the control device on the basis of the detected steering movement generates a control signal which is routed to a regulating device, which is connected via signal lines with the rotation motors (38, 39) of the two rotary members (23, 25), as a result of which on the basis of the steering angle pre-determined via the steering angle determiner the actuating element can be controlled.
Vortex meter for measuring a flow rate of a fluid, the vortex meter comprising: a flowtube; a bluff body positioned in the flowtube for shedding vortices in the fluid when the fluid flows through the flowtube; and a sensor positioned to detect the vortices, wherein the bluff body has a forward-facing surface and an abrasion-resistant cladding covering the forward facing surface; characterized in that the entire exterior surface of the bluff body is covered by the abrasion-resistant cladding. a flowtube; a bluff body positioned in the flowtube for shedding vortices in the fluid when the fluid flows through the flowtube; and a sensor positioned to detect the vortices, wherein the bluff body has a forward-facing surface and an abrasion-resistant cladding covering the forward facing surface; characterized in that the entire exterior surface of the bluff body is covered by the abrasion-resistant cladding.
Receiving container for keeping a consignment transferred to the receiving container by means of an unmanned flyable transporting device, with a slide extending between a beginning of the slide and an end of the slide, a plurality of receiving compartments, provided in the region of the end of the slide, for receiving at least one consignment, a landing platform provided above the beginning of the slide for the transporting device, a funnel provided between the landing platform and the beginning of the slide, an openable roof provided above the slide and the receiving compartments, and a perimeter guard running around the roof, the slide being designed as rotatable about the vertical, pivotable about the horizonal and/or adjustable in length between the beginning of the slide and the end of the slide, in order to deliver a consignment obtained from the transporting device at the beginning of the slide into one of the receiving compartments at the end of the slide, and the receiving compartments being provided running around the slide in such a manner, and the perimeter guard being configured in such a manner that, with the roof closed, the slide is provided completely within the receiving container. a slide extending between a beginning of the slide and an end of the slide, a plurality of receiving compartments, provided in the region of the end of the slide, for receiving at least one consignment, a landing platform provided above the beginning of the slide for the transporting device, a funnel provided between the landing platform and the beginning of the slide, an openable roof provided above the slide and the receiving compartments, and a perimeter guard running around the roof, the slide being designed as rotatable about the vertical, pivotable about the horizonal and/or adjustable in length between the beginning of the slide and the end of the slide, in order to deliver a consignment obtained from the transporting device at the beginning of the slide into one of the receiving compartments at the end of the slide, and the receiving compartments being provided running around the slide in such a manner, and the perimeter guard being configured in such a manner that, with the roof closed, the slide is provided completely within the receiving container.