mhurhangee/ep-ind-claims huggingface dataset:
A conveyor apparatus, so-called injector head, to enable feeding of continuous elongate device ( 7; CED), e.g. continuous tubing or coiled tubing, along a feeding axis down through the conveyor apparatus, to enable insertion of tools through the wellhead and a well below, or up through the conveyor apparatus by pulling action enabling retrieval of the tool from the wellhead and the well below, the conveyor apparatus comprising: an apparatus cage, an apparatus frame within the cage, a guide arch for guiding said continuous elongate device (7; CED) into said feeding axis, said arch being attached to said cage, and a pair of oppositely located, co-operatively movable, segmented continuous belts ( 28; 29) installed in the frame, each belt ( 28; 29) comprising a plurality of interconnected device ( 7; CED) gripper shoe carriers carried and movable by means of a pair of continuous belt drive chains ( 31; 32) running over respective pairs of chain drive sprockets ( 33; 34), and a device ( 7; CED) gripper shoe ( 38; 52) co-operative with each carrier to positively engage the continuous elongate device ( 7; CED), wherein the frame at a lower end thereof is tiltably connected to the cage so as to cause frame to be tiltable relative to said cage in a tilting plane about a single tilting axis, said tilting axis crossing the feeding axis of the continuous elongate device ( 7; CED). an apparatus cage, an apparatus frame within the cage, a guide arch for guiding said continuous elongate device (7; CED) into said feeding axis, said arch being attached to said cage, and a pair of oppositely located, co-operatively movable, segmented continuous belts ( 28; 29) installed in the frame, each belt ( 28; 29) comprising a plurality of interconnected device ( 7; CED) gripper shoe carriers carried and movable by means of a pair of continuous belt drive chains ( 31; 32) running over respective pairs of chain drive sprockets ( 33; 34), and a device ( 7; CED) gripper shoe ( 38; 52) co-operative with each carrier to positively engage the continuous elongate device ( 7; CED), wherein the frame at a lower end thereof is tiltably connected to the cage so as to cause frame to be tiltable relative to said cage in a tilting plane about a single tilting axis, said tilting axis crossing the feeding axis of the continuous elongate device ( 7; CED).
A window system comprising a pane enclosure frame made from an elastomer for a glass window pane, and a window aperture frame for receiving the pane enclosure frame, wherein the window aperture frame comprises a circumferential enclosing frame piece with a rib oriented toward the pane enclosure frame, wherein a stiffening element is installable in the pane enclosure frame in the area of the rib, wherein the pane enclosure frame comprises a hinged frame piece in the area of the stiffening element, characterized in that the pane enclosure frame comprises a receptacle, extending around the rib at a distance from it, for the U-shaped stiffening element, wherein the U-shaped stiffening element is inserted into the receptacle in a folded position of the frame piece.
Unloading apparatus for a product treatment device, having a transfer plate for transferring a plurality of successively arranged rows comprising in each case a plurality of treated products onto a conveying apparatus, characterized by a suction face, arranged between the transfer plate and the conveying apparatus, having suction openings for drawing the products onto the suction face, wherein the conveying directions for the products on the transfer plate and the conveying apparatus are arranged transversely to one another.
A method of determining a geometry of an orthodontic appliance, the method comprising: receiving a treatment plan for a patient's teeth, the treatment plan comprising: a plurality of stages to move the patient's teeth from an initial position toward a final position, and a treatment force for each of the plurality of stages to move the patient's teeth; generating an initial 3D model of an aligner comprising a plurality of tooth-receiving cavities to receive the patient's teeth being positioned to produce the treatment force; producing a finite element shell model comprising a plurality of shell elements according to the initial 3D model; determining a first modeled force based on the finite element shell model; varying at least one shell element of the finite element shell model, thereby generating an intermediate 3D model, the intermediate 3D model comprising a second modelled force to move the patient's teeth; comparing at least one of the first modeled force or the second modeled force to the treatment force of the at least one stage to provide a similarity value; and repeating the varying until a threshold shell element value, a threshold similarity value, or a combination thereof is obtained. receiving a treatment plan for a patient's teeth, the treatment plan comprising: a plurality of stages to move the patient's teeth from an initial position toward a final position, and a treatment force for each of the plurality of stages to move the patient's teeth; a plurality of stages to move the patient's teeth from an initial position toward a final position, and a treatment force for each of the plurality of stages to move the patient's teeth; generating an initial 3D model of an aligner comprising a plurality of tooth-receiving cavities to receive the patient's teeth being positioned to produce the treatment force; producing a finite element shell model comprising a plurality of shell elements according to the initial 3D model; determining a first modeled force based on the finite element shell model; varying at least one shell element of the finite element shell model, thereby generating an intermediate 3D model, the intermediate 3D model comprising a second modelled force to move the patient's teeth; comparing at least one of the first modeled force or the second modeled force to the treatment force of the at least one stage to provide a similarity value; and repeating the varying until a threshold shell element value, a threshold similarity value, or a combination thereof is obtained.
A park brake system comprising: a tapered motor shaft having a first diameter and a second diameter, the second diameter being greater than the first diameter; a spring disposed at least partially around a circumference of the tapered motor shaft; a voice coil disposed at least partially around a circumference of a bobbin; a first one-way clutch housed at least partially within the bobbin, the first one-way clutch disposed coaxial to the tapered motor shaft; and an annular magnet disposed coaxial to the tapered motor shaft and proximal to the first one-way clutch; wherein, in response to a first voltage applied to the voice coil, the first one-way clutch translates axially in a first direction with respect to the tapered motor shaft and engages with the second diameter, and wherein, in response to a second voltage applied to the voice coil, the first one-way clutch translates axially in a second direction and is disposed about the first diameter. a tapered motor shaft having a first diameter and a second diameter, the second diameter being greater than the first diameter; a spring disposed at least partially around a circumference of the tapered motor shaft; a voice coil disposed at least partially around a circumference of a bobbin; a first one-way clutch housed at least partially within the bobbin, the first one-way clutch disposed coaxial to the tapered motor shaft; and an annular magnet disposed coaxial to the tapered motor shaft and proximal to the first one-way clutch; wherein, in response to a first voltage applied to the voice coil, the first one-way clutch translates axially in a first direction with respect to the tapered motor shaft and engages with the second diameter, and wherein, in response to a second voltage applied to the voice coil, the first one-way clutch translates axially in a second direction and is disposed about the first diameter.
A blacklist management method, comprising: detecting, by a first terminal, an acceleration of the first terminal; when it is determined that the acceleration is greater than or equal to a first preset value, acquiring (S 102) identification information of a second terminal, wherein the second terminal is a terminal that communicates with the first terminal; and adding the identification information to a blacklist; wherein before the detecting, by a first terminal, an acceleration of the first terminal, the method further comprises: receiving a call request sent by the second terminal, and determining the identification information of the second terminal according to the call request; the detecting, by a first terminal, an acceleration of the first terminal comprises: after it is determined that the blacklist does not comprise the identification information of the second terminal, beginning to detect the acceleration of the first terminal. detecting, by a first terminal, an acceleration of the first terminal; when it is determined that the acceleration is greater than or equal to a first preset value, acquiring (S 102) identification information of a second terminal, wherein the second terminal is a terminal that communicates with the first terminal; and adding the identification information to a blacklist; wherein before the detecting, by a first terminal, an acceleration of the first terminal, the method further comprises: receiving a call request sent by the second terminal, and determining the identification information of the second terminal according to the call request; the detecting, by a first terminal, an acceleration of the first terminal comprises: after it is determined that the blacklist does not comprise the identification information of the second terminal, beginning to detect the acceleration of the first terminal. receiving a call request sent by the second terminal, and determining the identification information of the second terminal according to the call request; the detecting, by a first terminal, an acceleration of the first terminal comprises: after it is determined that the blacklist does not comprise the identification information of the second terminal, beginning to detect the acceleration of the first terminal.
A method for applying increased temperature and/or elevated pressure to parts in an autoclave, wherein volatile components escaping into the atmosphere in the autoclave are formed in the form of plasticizers, having the following steps: Operating a closed atmospheric circulating system for guiding the atmosphere containing the volatile components out of the autoclave; Cooling the atmosphere that has been fed out for condensing the volatile components by guiding the atmosphere through an inclined cooling section formed by a double pipe; Re-inserting the atmosphere cleaned of the volatile components into the autoclave; and Discharging the condensed volatile components out of the circulating system. Operating a closed atmospheric circulating system for guiding the atmosphere containing the volatile components out of the autoclave; Cooling the atmosphere that has been fed out for condensing the volatile components by guiding the atmosphere through an inclined cooling section formed by a double pipe; Re-inserting the atmosphere cleaned of the volatile components into the autoclave; and Discharging the condensed volatile components out of the circulating system.
A computer-implemented method comprising: identifying a plurality of switches that comprise at least a first switch and a second switch, wherein the first switch is connected to the second switch by a first path and a second path; calculating a plurality of multicast distribution trees for distributing multicast traffic among the plurality of switches, wherein: the plurality of multicast distribution trees comprise at least a first tree and a second tree; the root switch of the first tree is different than the root switch of the second tree; the first tree comprises the first path; and the second tree comprises the second path; receiving a plurality of multicast packets ingress to the plurality of switches at the first switch, wherein the plurality of multicast packets comprise: a plurality of multicast packets of a first multicast group; and a plurality of multicast packets of a second multicast group; using at least two of the plurality of multicast distribution trees to transmit the plurality of multicast packets from the first switch to the second switch, the using comprising: using the first tree rather than the second tree to transmit the plurality of multicast packets of the first multicast group from the first switch to the second switch; and using the second tree rather than the first tree to transmit the plurality of multicast packets of the second multicast group from the first switch to the second switch. identifying a plurality of switches that comprise at least a first switch and a second switch, wherein the first switch is connected to the second switch by a first path and a second path; calculating a plurality of multicast distribution trees for distributing multicast traffic among the plurality of switches, wherein: the plurality of multicast distribution trees comprise at least a first tree and a second tree; the root switch of the first tree is different than the root switch of the second tree; the first tree comprises the first path; and the second tree comprises the second path; the plurality of multicast distribution trees comprise at least a first tree and a second tree; the root switch of the first tree is different than the root switch of the second tree; the first tree comprises the first path; and the second tree comprises the second path; receiving a plurality of multicast packets ingress to the plurality of switches at the first switch, wherein the plurality of multicast packets comprise: a plurality of multicast packets of a first multicast group; and a plurality of multicast packets of a second multicast group; using at least two of the plurality of multicast distribution trees to transmit the plurality of multicast packets from the first switch to the second switch, the using comprising: using the first tree rather than the second tree to transmit the plurality of multicast packets of the first multicast group from the first switch to the second switch; and using the second tree rather than the first tree to transmit the plurality of multicast packets of the second multicast group from the first switch to the second switch.
A set comprising: - an apparatus for folding or unfolding at least one medical implant by means of at least two tension threads (11, 11', 11 ", 11 "', 11""); and - at least one implant connected with tension threads (11, 11', 11 ", 11'", 11"") for the purpose of folding and/or unfolding or provided or prepared for being connected with tension threads (11, 11', 11", 11"', 11""); wherein the apparatus comprises: - a shaft; - a tensioning device for altering a form or shape of the foldable and/or unfoldable implant by means of the tension thread (11, 11', 11 ", 11"', 11""); and - wherein the shaft comprises in at least one shaft section thereof a plurality of individual shaft fibers (13, 13', 13", 13"', 13""); - the individual shaft fibers (13, 13', 13", 13"', 13"") have each at least one shaft opening for passing through the tension threads (11, 11', 11", 11'", 11""); wherein the implant comprises: - apertures (a', a", a"' and a"") through which tension threads (11, 11', 11 ", 11"', 11"") are guided; characterized in that the tension threads (11, 11', 11 ", 11"', 11"") which pass through a common shaft opening of a particular individual shaft fiber (13, 13', 13", 13"', 13"") also pass together through a common aperture (a', a", a"' and a"") of the implant, wherein said tension threads (11, 11', 11", 11"', 11"") are guided more or less in parallel between said one or more shaft opening(s) of the particular individual shaft fiber (13, 13', 13", 13"', 13"") and said common aperture (a', a", a'" and a""), and wherein, during use of the apparatus, shaft fibers (13, 13', 13", 13"', 13"") of the plurality of individual shaft fibers (13, 13', 13", 13"', 13"") are always present in bundled form in at least one first section of the shaft section, whereas, in a second section, the shaft fibers (13, 13', 13", 13"', 13"") are provided or intended for moving away from each other during use of the apparatus and wherein tension threads (11, 11', 11", 11"', 11"") exiting from individual shaft fibers are connected with a rim portion of the implant for applying a force onto the rim portion, wherein the rim portion only comprises the entire circumference of the foldable and/or unfoldable periphery of the implant. - an apparatus for folding or unfolding at least one medical implant by means of at least two tension threads (11, 11', 11 ", 11 "', 11""); and - at least one implant connected with tension threads (11, 11', 11 ", 11'", 11"") for the purpose of folding and/or unfolding or provided or prepared for being connected with tension threads (11, 11', 11", 11"', 11""); - a shaft; - a tensioning device for altering a form or shape of the foldable and/or unfoldable implant by means of the tension thread (11, 11', 11 ", 11"', 11""); and - wherein the shaft comprises in at least one shaft section thereof a plurality of individual shaft fibers (13, 13', 13", 13"', 13""); - the individual shaft fibers (13, 13', 13", 13"', 13"") have each at least one shaft opening for passing through the tension threads (11, 11', 11", 11'", 11""); - apertures (a', a", a"' and a"") through which tension threads (11, 11', 11 ", 11"', 11"") are guided;
A terminal device, applied to a wireless communications system, wherein the wireless communications system is a multicarrier system, M subcarriers exist in and N subbands are defined in the wireless communications system, a quantity of subcarriers in each subband is greater than 1, and both M and N are positive integers greater than 1, wherein the terminal device comprises: a precoding matrix selection module, configured to select a precoding matrix from a preset codebook subset for each subband in the N subbands according to a configured reference signal, wherein each precoding matrix in the codebook subset is identified by a first precoding matrix indicator PMI and a second PMI, the precoding matrices selected by the precoding matrix selection module for all subbands in the N subbands correspond to at least two first PMIs, matrices corresponding to the at least two first PMIs have different phase relationships, and the precoding matrix selected by the precoding matrix selection module for each subband in the N subbands corresponds to one second PMI; and a reporting module, configured to report the first PMI and the second PMI that are corresponding to each precoding matrix selected by the precoding matrix selection module, wherein the some or all of the precoding matrices in the codebook subset are denoted by: W = W 1 W 2, wherein W 1 = X ̃ k 0 0 X ̃ k, k =0,1,···,15, X ̃ k = X k βX k, X k denotes a DFT column vector, β denotes a phase value in the configured phase set, β ∈ { β 0, β 1,···, β L -1}, and L is a positive integer; and W 2 is a matrix corresponding to the second precoding matrix index number of the precoding matrix in the codebook defined for the antenna ports whose quantity is greater than 4 in the LTE Rel-10. a precoding matrix selection module, configured to select a precoding matrix from a preset codebook subset for each subband in the N subbands according to a configured reference signal, wherein each precoding matrix in the codebook subset is identified by a first precoding matrix indicator PMI and a second PMI, the precoding matrices selected by the precoding matrix selection module for all subbands in the N subbands correspond to at least two first PMIs, matrices corresponding to the at least two first PMIs have different phase relationships, and the precoding matrix selected by the precoding matrix selection module for each subband in the N subbands corresponds to one second PMI; and a reporting module, configured to report the first PMI and the second PMI that are corresponding to each precoding matrix selected by the precoding matrix selection module, wherein the some or all of the precoding matrices in the codebook subset are denoted by: W = W 1 W 2, wherein W 1 = X ̃ k 0 0 X ̃ k, k =0,1,···,15, X ̃ k = X k βX k, X k denotes a DFT column vector, β denotes a phase value in the configured phase set, β ∈ { β 0, β 1,···, β L -1}, and L is a positive integer; and W 2 is a matrix corresponding to the second precoding matrix index number of the precoding matrix in the codebook defined for the antenna ports whose quantity is greater than 4 in the LTE Rel-10.
A method of forming a pleated filter media pack (16; 302) with a filter media sheet, comprising: pressing embossments (38; 274; 286, 292) into the filter media sheet repeatedly with stamping dies (30, 32); creasing the filter media sheet at spaced intervals (66, 68; 278; 288) to form a plurality of pleat tips (196; 308), the embossments (38; 274; 286, 292) disposed at least partially between pleat tips (196; 308); pleating the filter media sheet; and gathering the pleated filter media sheet to provide the pleated filter media pack (16; 302), characterized in that the stamping dies (30, 32) are in a non-roll form and the method comprises: advancing the filter media sheet along a travel path, extending the creasing (66, 68; 278; 288) in a direction that is perpendicular to the travel path and extending the embossments (38; 274; 286, 292) between adjacent creases by pressing said embossments into a first panel (70; 274; 284) of the filter media sheet and skipping the pressing on a second panel (72; 276; 290) that is connected to the first panel (70; 274; 284) by the creasing (66, 68; 278; 288), such that the first panel (70; 274; 284) and the second (72; 276; 290) panel mismatch. pressing embossments (38; 274; 286, 292) into the filter media sheet repeatedly with stamping dies (30, 32); creasing the filter media sheet at spaced intervals (66, 68; 278; 288) to form a plurality of pleat tips (196; 308), the embossments (38; 274; 286, 292) disposed at least partially between pleat tips (196; 308); pleating the filter media sheet; and gathering the pleated filter media sheet to provide the pleated filter media pack (16; 302), characterized in that the stamping dies (30, 32) are in a non-roll form and the method comprises: advancing the filter media sheet along a travel path, extending the creasing (66, 68; 278; 288) in a direction that is perpendicular to the travel path and extending the embossments (38; 274; 286, 292) between adjacent creases by pressing said embossments into a first panel (70; 274; 284) of the filter media sheet and skipping the pressing on a second panel (72; 276; 290) that is connected to the first panel (70; 274; 284) by the creasing (66, 68; 278; 288), such that the first panel (70; 274; 284) and the second (72; 276; 290) panel mismatch.