mhurhangee/ep-ind-claims huggingface dataset:
A system for delivering medication to a patient, the system comprising: a controller having a control algorithm and an automation risk monitor that monitors the control algorithm; a sensor in communication with the controller and the automation risk monitor and monitoring a medical condition; a rule based application in the automation risk monitor that receives data from the sensor and a closed loop control and compares the data to predetermined medical information to determine risk to a patient, wherein the controller controls a medication delivery device to deliver medication to the patient by infusion based on a comparison of the risk to a predetermined risk threshold; and a system monitor in communication with a network, the controller and the automation risk monitor, wherein the system monitor tracks network activity on the network to detect network failures and interruptions between the system and a clinician messaging system being remote to the system, whereby the infusion continues at a back-up infusion rate set by the rule based application when interruptions are detected, the system further comprising a multi-channel infusion system, wherein when the system monitor detects an interruption between the system and the clinician messaging system the controller transitions medication delivery to a different channel of the multi-channel infusion system. a controller having a control algorithm and an automation risk monitor that monitors the control algorithm; a sensor in communication with the controller and the automation risk monitor and monitoring a medical condition; a rule based application in the automation risk monitor that receives data from the sensor and a closed loop control and compares the data to predetermined medical information to determine risk to a patient, wherein the controller controls a medication delivery device to deliver medication to the patient by infusion based on a comparison of the risk to a predetermined risk threshold; and
Pocket sprung core a) having at least two zones (2, 3, 4, 5, 6), i) wherein at least one first zone (3, 5) has a deformability that differs from the deformability of at least one second zone (2, 4, 6) of the pocket sprung core, ii) wherein the at least one first zone (3, 5) has a plurality of first coil springs in pockets arranged in strands and iii) the at least one second zone (2, 4, 6) has a plurality of second coil springs in pockets arranged in strands, b) wherein the diameter "D" of the second coil springs is greater than the diameter "d" of the first coil springs, c) wherein a strand (7, 8) is connected in each case to an adjacent strand (7, 8) in each case at the circumferential outer side of each pocket (9, 10) at a joining site (11, 12, 13) by a joining method, characterized in that the same number of coil springs is provided in the at least one first zone (3, 5) and in the at least one second zone (2, 4, 6). a) having at least two zones (2, 3, 4, 5, 6), i) wherein at least one first zone (3, 5) has a deformability that differs from the deformability of at least one second zone (2, 4, 6) of the pocket sprung core, ii) wherein the at least one first zone (3, 5) has a plurality of first coil springs in pockets arranged in strands and iii) the at least one second zone (2, 4, 6) has a plurality of second coil springs in pockets arranged in strands, i) wherein at least one first zone (3, 5) has a deformability that differs from the deformability of at least one second zone (2, 4, 6) of the pocket sprung core, ii) wherein the at least one first zone (3, 5) has a plurality of first coil springs in pockets arranged in strands and iii) the at least one second zone (2, 4, 6) has a plurality of second coil springs in pockets arranged in strands, b) wherein the diameter "D" of the second coil springs is greater than the diameter "d" of the first coil springs, c) wherein a strand (7, 8) is connected in each case to an adjacent strand (7, 8) in each case at the circumferential outer side of each pocket (9, 10) at a joining site (11, 12, 13) by a joining method,
Micromechanical mechanism for an horological movement, the mechanism including a micromechanical device having a specific function, the device including a mobile element needing to be moved mechanically to trigger its operation, the mechanism comprising a system for actuating the device, the actuation system including a mobile striker (16, 17, 18) configured to go from a release position to a percussion position in which it transmits to the mobile element a momentum necessary for the release of the micromechanical device, the actuation system further including a magnet configured to attract the mobile striker (16, 17, 18) in a percussion position, the mobile element being in contact with the magnet in its rest position.
A designated Unmanned Aerial Vehicle capsule, comprising: a capsule body, comprising: a gas inflator mounted above a sealed bottom end of said capsule body; a designated piston comprising tenons; said designated piston mounted above said gas inflator; a UAV mounted above said designated piston; and an upper cover, mounted above said UAV, and configured to seal said capsule body's upper end; wherein said gas inflator is configured to release gas, towards said designated piston to be flowing between said tenons thereby discarding said upper cover and pushing said designated piston thereby releasing said UAV. a gas inflator mounted above a sealed bottom end of said capsule body; a designated piston comprising tenons; said designated piston mounted above said gas inflator; a UAV mounted above said designated piston; and an upper cover, mounted above said UAV, and configured to seal said capsule body's upper end; wherein said gas inflator is configured to release gas, towards said designated piston to be flowing between said tenons thereby discarding said upper cover and pushing said designated piston thereby releasing said UAV.
A cryogenic cooler comprising: a housing; a first actuator and a compressor piston within the housing, the first actuator including at least one first voice coil (306C-D) and at least one first magnetic circuit (304C-D), the at least one first voice coil of the first actuator configured to drive the compressor piston, the first actuator causing vibrations to the housing when driving the compressor piston; and a second actuator and a balance mechanism within the housing, the second actuator including at least one second voice coil (306A-B, 306E-F) and at least one second magnetic circuit (304A-B, 304E-F), the at least one second voice coil of the second actuator configured to drive the balance mechanism to reduce the vibrations to the housing caused by driving the compressor piston; wherein the compressor piston is concentric around at least a portion of the balance mechanism. a housing; a first actuator and a compressor piston within the housing, the first actuator including at least one first voice coil (306C-D) and at least one first magnetic circuit (304C-D), the at least one first voice coil of the first actuator configured to drive the compressor piston, the first actuator causing vibrations to the housing when driving the compressor piston; and a second actuator and a balance mechanism within the housing, the second actuator including at least one second voice coil (306A-B, 306E-F) and at least one second magnetic circuit (304A-B, 304E-F), the at least one second voice coil of the second actuator configured to drive the balance mechanism to reduce the vibrations to the housing caused by driving the compressor piston; wherein the compressor piston is concentric around at least a portion of the balance mechanism.
A method for programming a delay for a node in a distributed antenna system, the method comprising: receiving a selected delay value for the node, wherein the selected delay value identifies a desired end-to-end transport delay between the node and a host node in the distributed antenna system; receiving a signal path delay value at the node, wherein the signal path delay value identifies a delay for signals communicated between the node and the host node, the signal path delay value comprising an aggregation of at least one transport delay calculated by at least one further node adjacent to the node for at least one segment of the distributed antenna system between the node and the host node, wherein each transport delay of the at least one transport delay of the aggregation identifies travel time between two adjacent nodes in the distributed antenna system; and calculating, by a processor, an additional delay necessary to meet the selected delay value based on the signal path delay value and the selected delay value, wherein calculating the additional delay comprises subtracting the signal path delay from the selected delay value. receiving a selected delay value for the node, wherein the selected delay value identifies a desired end-to-end transport delay between the node and a host node in the distributed antenna system; receiving a signal path delay value at the node, wherein the signal path delay value identifies a delay for signals communicated between the node and the host node, the signal path delay value comprising an aggregation of at least one transport delay calculated by at least one further node adjacent to the node for at least one segment of the distributed antenna system between the node and the host node, wherein each transport delay of the at least one transport delay of the aggregation identifies travel time between two adjacent nodes in the distributed antenna system; and calculating, by a processor, an additional delay necessary to meet the selected delay value based on the signal path delay value and the selected delay value, wherein calculating the additional delay comprises subtracting the signal path delay from the selected delay value.
A display apparatus including a screen and a frame system supporting the screen, the frame system having a plurality of frame members (40, 42, 44), a hinge coupling two of the frame members (40, 44) together, and a lock positioned to block relative movement of the frame members (40, 42, 44), the lock including first and second interactive members (64, 66), the first interactive member having a key, and the second interactive member having a key-receiving portion that receives the key of the first interactive member to block relative movement of the frame members when the key is positioned in the key-receiving portion and to permit relative movement of the frame members when the key is spaced apart from the key-receiving portion, wherein at least one of the first and second interactive members (64, 66) pivots about a pivot axis and the frame members(40, 44) coupled together by the hinge cooperate to define a longitudinal axis along a length of the frame members (40, 44) and a transverse profile perpendicular to the longitudinal axis, a portion of the first interactive member being positioned within the transverse profile and the second interactive member being positioned completely within the transverse profile.
A method of assembling a wind turbine blade, comprising: providing a first blade segment comprising at least two first spar cap segments; providing a second blade segment comprising at least two second spar cap segments; attaching at least one sealing pad to the first blade segment prior to inserting the first blade segment, wherein the sealing pad is attached adjacent to a first spar cap segment; sealing the skin joint wherein the first and second blade (12, 14) segments each comprise an outer skin, skin core, and inner skin and wherein a skin joint is formed between the first blade segment skin and the second blade segment skin when the first blade is inserted into the second blade; inserting the second blade segment into the first blade segment wherein a spar cap cavity is formed between each set of corresponding first and second spar cap segments, and wherein the inner skin of the second blade segment abuts against the sealing pad when the second blade segment is inserted into the first blade segment, thereby sealing an interior surface of the spar cap cavity; injecting an adhesive into the spar cap cavities to bond the blade segments together, wherein a scarf joint is formed between each set of corresponding first and second spar cap segments. providing a first blade segment comprising at least two first spar cap segments; providing a second blade segment comprising at least two second spar cap segments; attaching at least one sealing pad to the first blade segment prior to inserting the first blade segment, wherein the sealing pad is attached adjacent to a first spar cap segment; sealing the skin joint wherein the first and second blade (12, 14) segments each comprise an outer skin, skin core, and inner skin and wherein a skin joint is formed between the first blade segment skin and the second blade segment skin when the first blade is inserted into the second blade; inserting the second blade segment into the first blade segment wherein a spar cap cavity is formed between each set of corresponding first and second spar cap segments, and wherein the inner skin of the second blade segment abuts against the sealing pad when the second blade segment is inserted into the first blade segment, thereby sealing an interior surface of the spar cap cavity; injecting an adhesive into the spar cap cavities to bond the blade segments together, wherein a scarf joint is formed between each set of corresponding first and second spar cap segments.
Casing with a longitudinal axis of a turbomachine extending along a rotor, in particular a turbo-compressor casing, including at least one jacket part which extends along the longitudinal axis and at least one end-face cover, wherein the casing has a horizontal parting line parallel to the longitudinal axis, which cover is surrounded by the jacket part at least by way of part of its axial extension, wherein the cover has a radial clearance in relation to the jacket part and wherein at least two separate guide elements of the cover are provided on the jacket part at two different circumferential positions with reference to the longitudinal axis, wherein the guide elements are realized in each case in such a manner that they block a movement of the cover in each case in the circumferential direction at least in a unidirectional manner, wherein a centering means is provided on the casing, said centering means having two supporting faces which abut against contact faces of the cover, wherein the supporting faces and contact faces are realized in such a manner that a horizontal movement of the cover perpendicular with respect to the longitudinal axis is blocked on both sides or only on both sides, wherein the cover has an opening, through which the rotor can be guided, characterized in that the cover includes at least one shaft seal, by means of which a circumferential gap between the rotor and the opening of the cover is sealable.
A computer-implemented method, comprising: displaying content on a display of a computing device; detecting at the border of the display of the computing device using a touch sensor a first gesture from a user; and in response to detecting the first gesture at the border of the display, changing from a current mode of operation of the computing device to a search mode of operation being usable to perform a search; detecting on the display of the computing device using the touch sensor a second gesture from the user with regard to a content displayed on the display of the computing device, the second gesture identifying subject matter to be searched; and automatically causing a search to be performed based at least in part on the identified subject matter in response to completion of the second gesture; and displaying results from the search in a floating window overlaid on the content on the display. displaying content on a display of a computing device; detecting at the border of the display of the computing device using a touch sensor a first gesture from a user; and in response to detecting the first gesture at the border of the display, changing from a current mode of operation of the computing device to a search mode of operation being usable to perform a search; detecting on the display of the computing device using the touch sensor a second gesture from the user with regard to a content displayed on the display of the computing device, the second gesture identifying subject matter to be searched; and automatically causing a search to be performed based at least in part on the identified subject matter in response to completion of the second gesture; and displaying results from the search in a floating window overlaid on the content on the display.
An aqueous poly(meth)acrylic acid-based polymer solution comprising a poly(meth)acrylic acid-based polymer, the poly(meth)acrylic acid-based polymer including carboxyl groups, wherein in 100 mol% of the carboxyl groups, 30 to 85 mol% of the carboxyl groups are in an alkali metal salt form of the carboxyl groups, and 15 to 70 mol% of the carboxyl groups are in an acid form of the carboxyl groups, the poly(meth)acrylic acid-based polymer containing a phosphorus-containing group, the poly(meth)acrylic acid-based polymer having a weight average molecular weight of 2000 to 9000, measured as indicated in the experimental section, the aqueous poly(meth)acrylic acid-based polymer solution having a concentration of inorganic anions, each including a sulfur or phosphorus atom, of 1000 to 10000 ppm relative to the aqueous poly(meth)acrylic acid-based polymer solution, measured as indicated in the experimental section, the aqueous poly(meth) acrylic acid-based polymer solution having a concentration of inorganic anions, each including a phosphorus atom, of 2500 to 4500 ppm relative to the aqueous poly(meth)acrylic acid-based polymer solution measured as indicated in the experimental section.
A transgenic maize plant material selected from the group consisting of plant tissue, plant part, plant cell or plant, comprising a heterologous polynucleotide operably linked to a plant promoter, wherein the polynucleotide comprises an miRNA target site selected from the group consisting of SEQ ID NO:7 and SEQ ID NO:8, wherein the polynucleotide is a herbicide resistance gene, and wherein a miRNA molecule endogenous to the plant material hybridizes to mRNA transcribed from the herbicide resistance gene and thereby reduces the expression of the herbicide resistance gene.
A rivet gun, comprising a first handle, a second handle, a transmission mechanism, and a clamping-pulling mechanism; wherein the first handle is fixedly connected or integrated with a housing limiting the clamping-pulling mechanism, and the second handle is rotatable around a first fixed shaft relative to the first handle; the clamping-pulling mechanism comprises a pull rod with gear grooves thereon; the transmission mechanism comprises a gear member with a gear end rotatable around a second fixed shaft, the gear end of the gear member being configured to engage with the gear grooves on the pull rod; and the second handle is connected to the transmission mechanism, and configured to drive the gear member of the transmission mechanism to rotate when the second handle is rotated and opened relative to the first handle such that the gear member pushes the pull rod forward by engagement between the gear end and the gear grooves, and to drive the gear member of the transmission to rotate when the second handle is rotated and closed relative to the first handle such that the gear end of the gear member pulls the pull rod backward by engagement between the gear end and the gear grooves; characterized in that the transmission mechanism comprises a connecting rod configured to transfer a motion of the second handle to the gear member; and in that a first end of the connecting rod is rotatably connected to the second handle by a first pin shaft, and a second end of the connecting rod is rotatably connected a tail end of the gear member by a second pin shaft. the first handle is fixedly connected or integrated with a housing limiting the clamping-pulling mechanism, and the second handle is rotatable around a first fixed shaft relative to the first handle; the clamping-pulling mechanism comprises a pull rod with gear grooves thereon; the transmission mechanism comprises a gear member with a gear end rotatable around a second fixed shaft, the gear end of the gear member being configured to engage with the gear grooves on the pull rod; and the second handle is connected to the transmission mechanism, and configured to drive the gear member of the transmission mechanism to rotate when the second handle is rotated and opened relative to the first handle such that the gear member pushes the pull rod forward by engagement between the gear end and the gear grooves, and to drive the gear member of the transmission to rotate when the second handle is rotated and closed relative to the first handle such that the gear end of the gear member pulls the pull rod backward by engagement between the gear end and the gear grooves; characterized in that the transmission mechanism comprises a connecting rod configured to transfer a motion of the second handle to the gear member; and in that a first end of the connecting rod is rotatably connected to the second handle by a first pin shaft, and a second end of the connecting rod is rotatably connected a tail end of the gear member by a second pin shaft.
A heating device (30, 31) comprising one or more threaded bodies, wherein the threaded body comprises: a. a cylindrical base body with a longitudinal cylinder axis extending in axial direction; and b. a thread unit extending along the cylindrical base body, the thread unit defining a right-hand thread and a left-hand thread superimposing the right-hand thread. a. a cylindrical base body with a longitudinal cylinder axis extending in axial direction; and b. a thread unit extending along the cylindrical base body, the thread unit defining a right-hand thread and a left-hand thread superimposing the right-hand thread.
Use of a semi-crystalline polyamide, for which the average number of carbon atoms relatively to the nitrogen atom is greater than or equal to 8, or of a mixture of semi-crystalline polyamides wherein the average number of carbon atoms relatively to the nitrogen atom of each of the semi-crystalline polyamides is greater than or equal to 8, in a composition comprising an amorphous polyamide or a mixture of amorphous polyamides for improving the dimensional stability by reducing the water absorption rate measured according to the ISO 62 standard revised in 2011 of said composition, provided that, when the amorphous polyamide is PA MACM.12, the semi-crystalline polyamide is not a PA 12.
A sheet material comprising: a fibrous substrate comprising microfibers; and a hydrophilic-group-containing polyurethane resin comprising an aromatic polyisocyanate, characterized in that the hydrophilic-group-containing polyurethane resin is a polyurethane resin crosslinked with a crosslinking agent applied to the fibrous substrate, the hydrophilic-group-containing polyurethane resin having a microphase-separated structure consisting in hard segment domains composed mainly of urethane bonds and urea bonds and soft segment domains composed mainly of polymeric polyols, wherein the crosslinking agent is at least one of a polyisocyanate crosslinking agent and a carbodiimide crosslinking agent. a fibrous substrate comprising microfibers; and a hydrophilic-group-containing polyurethane resin comprising an aromatic polyisocyanate, characterized in that