mhurhangee/patent-ind-claim-en huggingface dataset:
An adaptive speed data collection method, comprising: initializing a background service on a mobile device , the background service arranged as a state machine; collecting quality of service, QoS, data with the mobile device, the QoS data associated with a wide area network ; receiving a plurality of current input variables from a source outside of the background service; retrieving a plurality of previous input variables ; comparing ones of the plurality of current input variables with corresponding ones of the plurality of previous input variables ; forming asserted triggers based on the comparing (606-654); and storing the plurality of current input variables in corresponding memory locations occupied by the plurality of previous input variables (606-654), wherein the plurality of current input variables are treated as the plurality of previous input variables in a subsequent cycle of the state machine; determining, by the mobile device, a sample time value based on the asserted triggers and rules applied to the asserted triggers ; loading an alarm with the sample time value (654-655); suspending operation of the background service until the alarm is activated ; executing at least two sequential passes through the state machine (602-656), the two sequential passes separated by a time duration associated with the sample time value; and modifying the sample time value based on the application of at least one rule to at least one asserted trigger . initializing a background service on a mobile device , the background service arranged as a state machine; collecting quality of service, QoS, data with the mobile device, the QoS data associated with a wide area network ; receiving a plurality of current input variables from a source outside of the background service; retrieving a plurality of previous input variables ; comparing ones of the plurality of current input variables with corresponding ones of the plurality of previous input variables ; forming asserted triggers based on the comparing (606-654); and storing the plurality of current input variables in corresponding memory locations occupied by the plurality of previous input variables (606-654), wherein the plurality of current input variables are treated as the plurality of previous input variables in a subsequent cycle of the state machine; determining, by the mobile device, a sample time value based on the asserted triggers and rules applied to the asserted triggers ; loading an alarm with the sample time value (654-655); suspending operation of the background service until the alarm is activated ; executing at least two sequential passes through the state machine (602-656), the two sequential passes separated by a time duration associated with the sample time value; and modifying the sample time value based on the application of at least one rule to at least one asserted trigger .
Chain tensioner for employment on a bottom of a water body , wherein the chain tensioner is configured for adjustment of the length of a tensioning chain that extends between the chain tensioner and a floating offshore facility , wherein the tensioning chain comprises a series of connected links each having a main plane (M), wherein the links alternatingly have their main plane in a first orientation and in a second orientation that is under an angle with respect to the first orientation, wherein the chain tensioner comprises a frame that bounds a chain passage for the tensioning chain and that has a bottom wall or skid , and a chain lock that is connected with the frame for engaging and confining a link of the tensioning chain in the chain passage from aside the tensioning chain, characterized in that the bottom wall or skid is for standing on the bottom of the water body, wherein the chain lock is fixedly connected with the frame, and wherein the chain tensioner comprises a chain switch device comprising a chain guide for engaging the tensioning chain in the chain passage from aside the tensioning chain, wherein the tensioning chain is sidewardly moveable by means of the chain guide of the chain switch device by moving (C, D) the chain guide with respect to the frame over a switching stroke between a first position in which the chain lock engages a link of the tensioning chain, and a second position in which the tensioning chain passes the chain lock.
A treatment apparatus for treating a surface of a body with a first treatment medium and a second treatment medium , wherein the treatment apparatus includes a holding device rotatable about an axis of rotation for receiving and holding the body and a rotary drive rotationally fixedly coupled to the rotatable holding device as well as a supply device for supplying the first treatment medium and the second treatment medium to the surface of the body held in the holding device are provided, wherein the treatment apparatus includes a collection container having a separation element , which separation element divides the collection container into a first chamber and a second chamber such that the first treatment medium can be collected in the first chamber and the second treatment medium can be separately collected in the second chamber , wherein the collection container includes a base chamber part not displaceable with respect to the holding device and the separation element is movably arranged between a first position (A) and a second position (B) such that the first treatment medium can be led off into the first chamber in the first position (A) and the second treatment medium can be led off into the second chamber in the second position (B), characterized in that the rotary drive is a bearingless motor including a stator and a rotor contactlessly magnetically journalled with respect to the stator , wherein the bearingless motor with rotor and stator is designed within the process chamber.
A catheter assembly, comprising: a catheter body having a proximal portion and a distal portion ; an operative device coupled to the distal portion of the catheter body; and a tip member coupled to a distal portion of the operative device, the tip member having a lumen comprising a first section and a second section connected to the first section , the first section being connected to the second section by a third section of the lumen wherein an inner diameter of the first section is larger than an inner diameter of the second section , the catheter assembly further comprising a guidewire guide tube disposed within a guidewire lumen of the catheter assembly and extending proximally from the third section , the guidewire guide tube being configured to receive a guidewire, characterized in that the operative device comprises: an expandable cannula ; and an impeller disposed within the expandable cannula . a catheter body having a proximal portion and a distal portion ; an operative device coupled to the distal portion of the catheter body; and a tip member coupled to a distal portion of the operative device, the tip member having a lumen comprising a first section and a second section connected to the first section , the first section being connected to the second section by a third section of the lumen wherein an inner diameter of the first section is larger than an inner diameter of the second section , the catheter assembly further comprising a guidewire guide tube disposed within a guidewire lumen of the catheter assembly and extending proximally from the third section , the guidewire guide tube being configured to receive a guidewire, characterized in that the operative device comprises: an expandable cannula ; and an impeller disposed within the expandable cannula . an expandable cannula ; and an impeller disposed within the expandable cannula .
A method of transferring Hybrid Automatic Repeat Request, HARQ, positive Acknowledgement, ACK, or Negative Acknowledgement, NACK, in a wireless communication system comprising a first wireless device , a second wireless device and a network node , wherein the network node is a base station, the method comprising: transmitting , by the network node , a first transmission directly to the first wireless device ; in response thereto determining, by the first wireless device, if a first HARQ-ACK/NACK should be relayed by the second wireless device based on at least one of an uplink, UL, channel quality of the first wireless device , an UL channel resource availability of the first wireless device , an UL channel capacity of the first wireless device , and/or an urgency associated with the first HARQ-ACK/NACK ; transmitting , by the first wireless device to the second wireless device , the first HARQ-ACK/NACK associated with the first transmission ; and responsive to control information provided to the second wireless device indicating that the first HARQ-ACK/NACK is to be forwarded to the network node : relaying , by the second wireless device , the first HARQ-ACK/NACK to the network node . transmitting , by the network node , a first transmission directly to the first wireless device ; in response thereto determining, by the first wireless device, if a first HARQ-ACK/NACK should be relayed by the second wireless device based on at least one of an uplink, UL, channel quality of the first wireless device , an UL channel resource availability of the first wireless device , an UL channel capacity of the first wireless device , and/or an urgency associated with the first HARQ-ACK/NACK ; transmitting , by the first wireless device to the second wireless device , the first HARQ-ACK/NACK associated with the first transmission ; and responsive to control information provided to the second wireless device indicating that the first HARQ-ACK/NACK is to be forwarded to the network node : relaying , by the second wireless device , the first HARQ-ACK/NACK to the network node .
A drive unit for a trailer comprising drive means , power means and mounting means, the mounting means being arranged, in use, to be secured to a trailer, the drive means being arranged to rotate a wheel of a trailer around an axle of the trailer, the drive unit comprising actuating means to move the drive means between: a disengaged position, and an engaged position in which movement is transmitted from the drive means to a wheel of the trailer, wherein the power means comprises a detachable battery which is mounted directly within the drive unit and is supported therein and wherein the drive unit forms a single integral self-supporting component, and characterised in that : the drive unit comprises locking means and, in which, the locking means is arranged to lock the detachable battery within the drive unit to prevent the unauthorised removal of the detachable battery . a disengaged position, and an engaged position in which movement is transmitted from the drive means to a wheel of the trailer,
Un-weathered rolled zinc alloy sheet for coverage and protection of buildings, with at least one patterned face having an optical reflectivity that varies from region to region on said face, characterized in that : - said regions are of a pseudo-random shape, having dimensions, as measured between successive maxima or minima on a reflectivity map, in the range of 0.1 mm to 10 cm; and - the optical reflectivity, measured across the sheet in any arbitrary direction, presents a specular reflectivity, as determined according to ISO 7668, having a Root Mean Square deviation of more than 3 Gloss Units and/or a diffuse reflectivity, as determined according to ISO 7724/1, having a Root Mean Square deviation of more than 0.2. - said regions are of a pseudo-random shape, having dimensions, as measured between successive maxima or minima on a reflectivity map, in the range of 0.1 mm to 10 cm; and - the optical reflectivity, measured across the sheet in any arbitrary direction, presents a specular reflectivity, as determined according to ISO 7668, having a Root Mean Square deviation of more than 3 Gloss Units and/or a diffuse reflectivity, as determined according to ISO 7724/1, having a Root Mean Square deviation of more than 0.2.
A computer implemented method of determining a spectacle lens design for the purpose of the use of the spectacle lens design for a manufacture of a progressive power lens, the method comprising a step of optimizing at least one surface of a numerically represented spectacle lens such that the numerically represented spectacle lens with the optimized surface provides a distance portion , a near portion , and a corridor extending between the distance position and the near portion , and a step of composing the spectacle lens design from numerical representations of segments (1, 3.1-3.5, 5.1-5.5) with discontinuities between neighboring segments (1, 3.1-3.5, 5.1-5.5) in at least one of refractive index and surface shape, where the segments (1, 3.1-3.5, 5.1-5.5) include a central segment being a segment of the numerically represented spectacle lens with the optimized surface that comprises the distance portion , the near portion , and the corridor , and peripheral segments (3.1-3.5, 5.1-5.5) forming the peripheral zones, characterized in that combinations of refractive indices and surface shapes of the segments (1, 3.1-3.5, 5.1-5.5) are optimized such that the residual astigmatic error does not exceed a given threshold of 1.5 D. a step of composing the spectacle lens design from numerical representations of segments (1, 3.1-3.5, 5.1-5.5) with discontinuities between neighboring segments (1, 3.1-3.5, 5.1-5.5) in at least one of refractive index and surface shape, where the segments (1, 3.1-3.5, 5.1-5.5) include a central segment being a segment of the numerically represented spectacle lens with the optimized surface that comprises the distance portion , the near portion , and the corridor , and peripheral segments (3.1-3.5, 5.1-5.5) forming the peripheral zones, characterized in that combinations of refractive indices and surface shapes of the segments (1, 3.1-3.5, 5.1-5.5) are optimized such that the residual astigmatic error does not exceed a given threshold of 1.5 D.
A piling hammer comprising: a linear electric machine comprising a mover connected to a ram block for striking a pile; characterized in that the piling hammer comprises a processor operatively connected to the linear electric machine and configured to: determine a total target kinetic energy for striking a pile using a ram block connected to a mover of a linear electric machine of the piling hammer; determine a first portion of the total target kinetic energy for striking the pile at least based on a mass of the ram block; determine a second portion of the total target kinetic energy for striking the pile based on the total target kinetic energy and the first portion of the total target kinetic energy; control the linear electric machine to accelerate the mover based on the determined second portion of the kinetic energy for striking the pile by the linear electric machine. a linear electric machine comprising a mover connected to a ram block for striking a pile; characterized in that the piling hammer comprises a processor operatively connected to the linear electric machine and configured to: determine a total target kinetic energy for striking a pile using a ram block connected to a mover of a linear electric machine of the piling hammer; determine a first portion of the total target kinetic energy for striking the pile at least based on a mass of the ram block; determine a second portion of the total target kinetic energy for striking the pile based on the total target kinetic energy and the first portion of the total target kinetic energy; control the linear electric machine to accelerate the mover based on the determined second portion of the kinetic energy for striking the pile by the linear electric machine. determine a total target kinetic energy for striking a pile using a ram block connected to a mover of a linear electric machine of the piling hammer; determine a first portion of the total target kinetic energy for striking the pile at least based on a mass of the ram block; determine a second portion of the total target kinetic energy for striking the pile based on the total target kinetic energy and the first portion of the total target kinetic energy; control the linear electric machine to accelerate the mover based on the determined second portion of the kinetic energy for striking the pile by the linear electric machine.
Maritime drift control system comprising a vessel movement detection unit to detect actual vessel speed and heading, further comprising a vessel movement control unit with a drift controller which is able to control operation of at least one propulsion device of a vessel, wherein the maritime drift control system comprises a drift error generator to generate drift error signals depending on a predetermined speed limit and the actual vessel speed, wherein the drift error generator is connected to the drift controller to transmit the drift error signals to the drift controller and wherein the drift controller is designated to use said drift error signals to compute and transmit propulsion command signals to the at least one propulsion device in order to reduce speed of the vessel to target values, further characterised in that the drift error signal shall be zero as long as the actual vessel speed is in a range between zero and a speed threshold value which is between zero and the predetermined speed limit, and wherein the drift error signal increases when the actual vessel speed increases above the speed threshold value, wherein the drift error generator is designated to calculate the integral of the drift error signals , and wherein the drift error generator is designated to apply a decaying function to reduce said integral, when the actual vessel speed is below the predetermined speed limit.
A moisture absorbing composition comprising: - 50 to 90% by weight of at least one desiccant selected from CaCl 2 salt, MgCl 2 salt, and mixtures thereof, and - 5 to 30% by weight of at least one sequestering agent selected from acrylic phosphonates, monomer polycarboxylate such as citrates, gluconates, oxydisuccinates, glycerol mono-, di- and tri-succinates, carboxymethyloxysuccinates, amino polycarboxylic compounds such as methylglycinediacetate acid carboxymethyloxymalonates (MGDA), glutamic diacetic acid (GLDA), iminodisuccinate (IDS), ethylenediamine disuccinate (EDDS), dipicolinates, nitrilotriacetates, hydroxyethyliminodi acetates, ethylenediaminetetraacetic acid (EDTA), nitrilotriacetic acid (NTA), orthophosphates, metaphosphates, pyrophosphates, sodium tripolyphosphate, and mixtures thereof; and - 3 to 30% by weight of at least one super-absorbent agent capable of absorbing the brine formed by said desiccant after absorption of moisture. - 50 to 90% by weight of at least one desiccant selected from CaCl 2 salt, MgCl 2 salt, and mixtures thereof, and - 5 to 30% by weight of at least one sequestering agent selected from acrylic phosphonates, monomer polycarboxylate such as citrates, gluconates, oxydisuccinates, glycerol mono-, di- and tri-succinates, carboxymethyloxysuccinates, amino polycarboxylic compounds such as methylglycinediacetate acid carboxymethyloxymalonates (MGDA), glutamic diacetic acid (GLDA), iminodisuccinate (IDS), ethylenediamine disuccinate (EDDS), dipicolinates, nitrilotriacetates, hydroxyethyliminodi acetates, ethylenediaminetetraacetic acid (EDTA), nitrilotriacetic acid (NTA), orthophosphates, metaphosphates, pyrophosphates, sodium tripolyphosphate, and mixtures thereof; and - 3 to 30% by weight of at least one super-absorbent agent capable of absorbing the brine formed by said desiccant after absorption of moisture.
Coupler arrangement for a rail vehicle, comprising a coupler head and an uncoupling device having at least one handle (3; 3', 3") which is manually swivellable about an axis of rotation (A) in a swivel direction (S) from a first position, in which the coupler head is in a state in which it is coupled to or ready to couple with a coupler head of another coupler arrangement, into a second position, in which the coupler head is in an uncoupled state, characterized in that the at least one handle (3; 3', 3") is mechanically lockable by moving at least a portion of the at least one handle (3; 3', 3") in a locking direction from the second position into a third position, wherein the locking direction differs from the swivel direction (S).
A method of manufacturing a dental component , in particular a dental prosthesis or a partial dental prosthesis, by means of a dental furnace , comprising the following steps: (i) preparing a virtual model of the dental component ; (ii) automatically selecting one, two or more programs and/or automatically preparing one, two or more programs and/or preparing one, two or more suggestions for a program for operating the dental furnace on the basis of the virtual model of the dental component ; (iii) producing a model of the dental component , wherein the model of the dental component is additively manufactured from a model material on the basis of the virtual model of the dental component , in particular by means of 3D printing; (iv) embedding the model in an investment material ; (v) removing the model from the investment material , in particular by heating or burning out, to obtain a negative mold of the model ; (vi) inserting a raw material required for manufacturing the dental component into the negative mold ; and (vii) producing the dental component in the negative mold in the dental furnace on the basis of the selected, prepared or suggested program. (i) preparing a virtual model of the dental component ; (ii) automatically selecting one, two or more programs and/or automatically preparing one, two or more programs and/or preparing one, two or more suggestions for a program for operating the dental furnace on the basis of the virtual model of the dental component ; (iii) producing a model of the dental component , wherein the model of the dental component is additively manufactured from a model material on the basis of the virtual model of the dental component , in particular by means of 3D printing; (iv) embedding the model in an investment material ; (v) removing the model from the investment material , in particular by heating or burning out, to obtain a negative mold of the model ; (vi) inserting a raw material required for manufacturing the dental component into the negative mold ; and (vii) producing the dental component in the negative mold in the dental furnace on the basis of the selected, prepared or suggested program.
A frame assembly for a turbine engine, the frame assembly comprising: a plurality of vane struts extending radially outward relative to an axis; an outer cavity which includes an opening for communicating cooling air to a turbine section of the turbine engine; and a transfer tube within the outer cavity configured and adapted to receive cooling air, the transfer tube including a bend relative to the engine axis to impart circumferential velocity into cooling air within the outer cavity for maintaining a desired temperature of the cooling air within the outer cavity, characterized in that the transfer tube includes an axial portion that extends aft in a direction parallel to the axis, said axial portion transitioning a bend configured to impart circumferential velocity to the cooling air within the outer cavity. a plurality of vane struts extending radially outward relative to an axis; an outer cavity which includes an opening for communicating cooling air to a turbine section of the turbine engine; and a transfer tube within the outer cavity configured and adapted to receive cooling air, the transfer tube including a bend relative to the engine axis to impart circumferential velocity into cooling air within the outer cavity for maintaining a desired temperature of the cooling air within the outer cavity, characterized in that the transfer tube includes an axial portion that extends aft in a direction parallel to the axis, said axial portion transitioning a bend configured to impart circumferential velocity to the cooling air within the outer cavity.