mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a vehicle having an autonomous operation mode, the method comprising: controlling, by a processor, operation of the vehicle based on a first control strategy; identifying a sensor field based on a field of view of one or more sensors (310, 311, 320. 321, 322, 323, 330, 331) of the vehicle; receiving sensor data from selected ones of the one or more sensors; detecting an object and a location of the object in the sensor field based on the received sensor data; identifying a change in sensor perception of the one or more sensors based on the location of the object, the change in the sensor perception including a diminished ability to detect objects within the sensor field; determining a second control strategy based on the change; and controlling, by the processor, the operation of the vehicle based on the second control strategy. controlling, by a processor, operation of the vehicle based on a first control strategy; identifying a sensor field based on a field of view of one or more sensors (310, 311, 320. 321, 322, 323, 330, 331) of the vehicle; receiving sensor data from selected ones of the one or more sensors; detecting an object and a location of the object in the sensor field based on the received sensor data; identifying a change in sensor perception of the one or more sensors based on the location of the object, the change in the sensor perception including a diminished ability to detect objects within the sensor field; determining a second control strategy based on the change; and controlling, by the processor, the operation of the vehicle based on the second control strategy.
A sequence-based signal processing method, comprising: determining (S101) a first sequence { f n } consisting of 18 elements, wherein f n is an element in the first sequence { f n }, f n meets f n = A · x n · e 2π·j·a·n , 0 ≤ n ≤ 17, n is an integer, A is a non-zero complex number, α is a real number, x n = u. e π·j·s n / 4 , u is a non-zero complex number, and s n is an element in a second sequence { s n } consisting of 18 elements, wherein the second sequence { s n } belongs to a sequence set, wherein the sequence set comprises {-3, 3, -1, 1, 3, 1, -3, -1, 1, 1, -3, 1, 3, 3, -1, -3, -3, -3}; mapping (S102) the first sequence { f n } to 18 subcarriers to generate a first signal; and sending (S103) the first signal. determining (S101) a first sequence { f n } consisting of 18 elements, wherein f n is an element in the first sequence { f n }, f n meets f n = A · x n · e 2π·j·a·n , 0 ≤ n ≤ 17, n is an integer, A is a non-zero complex number, α is a real number, x n = u. e π·j·s n / 4 , u is a non-zero complex number, and s n is an element in a second sequence { s n } consisting of 18 elements, wherein the second sequence { s n } belongs to a sequence set, wherein the sequence set comprises {-3, 3, -1, 1, 3, 1, -3, -1, 1, 1, -3, 1, 3, 3, -1, -3, -3, -3}; mapping (S102) the first sequence { f n } to 18 subcarriers to generate a first signal; and sending (S103) the first signal.
Casting process of reinforced concrete railway ties comprising at least one pair of anchor bolts , each anchor bolt being formed of a cylindrical stem with a threaded cylindrical point , wherein a rectangular formwork is used, which is provided with a median longitudinal axis Z and a horizontal bottom wall , two longitudinal walls and two transverse walls defining an internal cavity of said formwork ; wherein the process comprises the following steps: A) arranging of at least one section on the bottom wall of the formwork , said at least one section comprising a pair of conical seats with an axis X perpendicular to the surface of the section ; B) mounting of a bush in said cylindrical point of each anchor bolt , wherein said bush is internally provided with a cylindrical axial conduit suitable for receiving the cylindrical point of the anchor bolt ; wherein said bush is externally conic with a conicity angle (β) allowing a coupling in said conical seats of the bottom wall of the formwork and wherein each anchor bolt has a length that is lower than the height of said longitudinal and transverse walls of said formwork; C) insertion of the bushes already screwed to the points of the anchor bolts inside said conical seats of the bottom wall of the formwork, so that a length of the anchor bolts occupies said cavity of the formwork; D) casting of fluid concrete to fill said cavity of the formwork, embedding the anchor bolts ; E) extraction of said railway tie from the formwork according to a direction of a vertical axis Y and simultaneous extraction of said bushes screwed to the points of the anchor bolts from the conical seats of the bottom wall of said formwork; and F) removal of said bushes from the points of the anchor bolts . A) arranging of at least one section on the bottom wall of the formwork , said at least one section comprising a pair of conical seats with an axis X perpendicular to the surface of the section ; B) mounting of a bush in said cylindrical point of each anchor bolt , wherein said bush is internally provided with a cylindrical axial conduit suitable for receiving the cylindrical point of the anchor bolt ; wherein said bush is externally conic with a conicity angle (β) allowing a coupling in said conical seats of the bottom wall of the formwork and wherein each anchor bolt has a length that is lower than the height of said longitudinal and transverse walls of said formwork; C) insertion of the bushes already screwed to the points of the anchor bolts inside said conical seats of the bottom wall of the formwork, so that a length of the anchor bolts occupies said cavity of the formwork; D) casting of fluid concrete to fill said cavity of the formwork, embedding the anchor bolts ; E) extraction of said railway tie from the formwork according to a direction of a vertical axis Y and simultaneous extraction of said bushes screwed to the points of the anchor bolts from the conical seats of the bottom wall of said formwork; and F) removal of said bushes from the points of the anchor bolts .
A method of estimating a T 2 cutoff of a porous media, the method comprising: saturating a sample of the porous media with a fluid; measuring a T 2 distribution of the sample while saturated; preparing the sample for unsaturated measurement by: spinning the sample in a centrifuge; obtaining a saturation profile of the sample, wherein obtaining the saturation profile of the sample comprises performing NMR measurements on the sample; identifying a portion of the sample in which saturation of the sample is within 10% of a minimum saturation of the sample; measuring a T 2 distribution of the porous media on the identified portion of the sample; and calculating the T 2 cutoff of the porous media based at least in part on the measured T 2 distribution of the porous media. saturating a sample of the porous media with a fluid; measuring a T 2 distribution of the sample while saturated; preparing the sample for unsaturated measurement by: spinning the sample in a centrifuge; obtaining a saturation profile of the sample, wherein obtaining the saturation profile of the sample comprises performing NMR measurements on the sample; identifying a portion of the sample in which saturation of the sample is within 10% of a minimum saturation of the sample; measuring a T 2 distribution of the porous media on the identified portion of the sample; and calculating the T 2 cutoff of the porous media based at least in part on the measured T 2 distribution of the porous media. spinning the sample in a centrifuge; obtaining a saturation profile of the sample, wherein obtaining the saturation profile of the sample comprises performing NMR measurements on the sample; identifying a portion of the sample in which saturation of the sample is within 10% of a minimum saturation of the sample; measuring a T 2 distribution of the porous media on the identified portion of the sample; and calculating the T 2 cutoff of the porous media based at least in part on the measured T 2 distribution of the porous media.
Frame for a simulator, particularly a vehicle or aircraft simulator, comprising at least one first guide and/or at least one second guide , a subframe for a seat slidable in the frame along the at least one first guide and a subframe for a control member , such as a steering wheel , slidable in the frame along the at least one second guide, wherein the subframe for the seat and/or the subframe for the control member comprise(s) a fixation device , characterized in that the fixation device comprises at least one fixation member which extends on either side of the respective guide and which has a recess through which the guide protrudes, wherein the at least one fixation member is pivotable about an axis ("A") oriented substantially perpendicularly of the guide between a release position, in which mutually opposite edges of the recess lie at a distance from the guide, and a fixation position in which the edges engage on mutually opposite sides of the guide.
An apparatus for applying leaflets to containers , comprising a fixed framework supporting at least one magazine adapted to contain a plurality of leaflets and having at least one outlet for said leaflets that is arranged so as to face the peripheral region of an application drum , which can rotate about its own axis, with respect to said fixed framework , and having, on its own peripheral region, at least one accommodation seat for at least one respective leaflet picked up from said outlet and intended to be transferred onto at least one respective container moved by a conveyor , characterized in that said application drum can be actuated with a continuous rotary motion about its own axis and is provided, at said at least one accommodation seat , with means for retention of said at least one leaflet that can be moved on command between a condition that lies close to the axis of said application drum , in order to allow the installation of said at least one leaflet in said at least one accommodation seat , and a condition that is spaced from the axis of said application drum , in order to pick up said at least one leaflet from said outlet and to transfer said at least one leaflet onto the respective container .
A medical device system, comprising: a guidewire (12; 512); a pressure sensor assembly disposed within the guidewire (12; 512), the pressure sensor assembly including a Fabry-Perot pressure sensor and a first optical fiber coupled to the Fabry-Perot pressure sensor; wherein the first optical fiber includes a first central core having a first core outer diameter; a cable (140; 140'; 140"; 240; 340; 440; 540) coupled to the guidewire (12; 512), the cable (140; 140'; 140"; 240; 340; 440; 540) including a second optical fiber (142; 142'; 142"; 342; 442) including a second central core and a cladding; and wherein the second central core has a second core outer diameter greater than the first core outer diameter, and wherein the cladding of the second optical fiber (142; 142'; 142"; 342; 442) has an outer diameter equal to an outer diameter of the guidewire (12; 512). a guidewire (12; 512); a pressure sensor assembly disposed within the guidewire (12; 512), the pressure sensor assembly including a Fabry-Perot pressure sensor and a first optical fiber coupled to the Fabry-Perot pressure sensor; wherein the first optical fiber includes a first central core having a first core outer diameter; a cable (140; 140'; 140"; 240; 340; 440; 540) coupled to the guidewire (12; 512), the cable (140; 140'; 140"; 240; 340; 440; 540) including a second optical fiber (142; 142'; 142"; 342; 442) including a second central core and a cladding; and wherein the second central core has a second core outer diameter greater than the first core outer diameter, and wherein the cladding of the second optical fiber (142; 142'; 142"; 342; 442) has an outer diameter equal to an outer diameter of the guidewire (12; 512).
A method of preparing an electrode for an electrode assembly having a structure in which electrodes are laminated, comprising: (i) a process of coating an electrode mixture on at least one surface of a metal sheet so that n (n ≧ 2) electrode mixture coated layer lines are formed between non-coated portions parallel to a first direction; (ii) a process of rolling the metal sheet sequentially from a first electrode mixture coated layer line to an n th electrode mixture coated layer line using a rolling roller rotated in a second direction perpendicular to the first direction; (iii) a process of slitting the rolled metal sheet at least twice in the second direction to prepare electrode plate base materials having n electrode mixture coated layers formed thereon; and (iv) a process of cutting each of the electrode plate base materials in the first direction to obtain n single sheet electrodes. (i) a process of coating an electrode mixture on at least one surface of a metal sheet so that n (n ≧ 2) electrode mixture coated layer lines are formed between non-coated portions parallel to a first direction; (ii) a process of rolling the metal sheet sequentially from a first electrode mixture coated layer line to an n th electrode mixture coated layer line using a rolling roller rotated in a second direction perpendicular to the first direction; (iii) a process of slitting the rolled metal sheet at least twice in the second direction to prepare electrode plate base materials having n electrode mixture coated layers formed thereon; and (iv) a process of cutting each of the electrode plate base materials in the first direction to obtain n single sheet electrodes.
A method for a slave device for calibrating an output timing for transmitting data to a master device, wherein the master device and the slave device are communicatively coupled via an interface, the method comprising: receiving , from the master device, one or more consecutive first signal edges indicating a synchronization event; recovering a reference clock of the master device based on the one or more consecutive first signal edges; transmitting one or more predetermined second signal edges to the master device, wherein the one or more predetermined second signal edges are generated by the slave device using the recovered reference clock; receiving , from the master device, data indicating one or more sampled values of the master device for the one or more predetermined second signal edges, wherein the one or more sampled values indicate the respective signal level of the one or more predetermined second signal edges at a respective sample time; and adjusting the output timing based on a comparison of the one or more predetermined second signal edges and the one or more sampled values of the master device for the one or more predetermined second signal edges. receiving , from the master device, one or more consecutive first signal edges indicating a synchronization event; recovering a reference clock of the master device based on the one or more consecutive first signal edges; transmitting one or more predetermined second signal edges to the master device, wherein the one or more predetermined second signal edges are generated by the slave device using the recovered reference clock; receiving , from the master device, data indicating one or more sampled values of the master device for the one or more predetermined second signal edges, wherein the one or more sampled values indicate the respective signal level of the one or more predetermined second signal edges at a respective sample time; and adjusting the output timing based on a comparison of the one or more predetermined second signal edges and the one or more sampled values of the master device for the one or more predetermined second signal edges.
A measurement method, wherein the method comprises: measuring, by a terminal , a cell currently camped on by the terminal , in Δ t , to obtain { S i | i is a positive integer, i ≤ N }, wherein N is a total quantity of times of measuring the cell currently camped on by the terminal in Δ t , S i is a cell state variable obtained through the i th measurement, and N>1; characterized in that if each S i in {S i | i is a positive integer, i ≤ N } satisfies that S REF - S i is greater than or equal to a first threshold, updating, by the terminal , S REF so that S REF is equal to S N , wherein S REF is a cell state reference variable of the cell currently camped on by the terminal ; and measuring, by the terminal , one or more neighboring cells of the cell currently camped on by the terminal if S REF - S i is greater than or equal to the first threshold. measuring, by a terminal , a cell currently camped on by the terminal , in Δ t , to obtain { S i | i is a positive integer, i ≤ N }, wherein N is a total quantity of times of measuring the cell currently camped on by the terminal in Δ t , S i is a cell state variable obtained through the i th measurement, and N>1; characterized in that if each S i in {S i | i is a positive integer, i ≤ N } satisfies that S REF - S i is greater than or equal to a first threshold, updating, by the terminal , S REF so that S REF is equal to S N , wherein S REF is a cell state reference variable of the cell currently camped on by the terminal ; and measuring, by the terminal , one or more neighboring cells of the cell currently camped on by the terminal if S REF - S i is greater than or equal to the first threshold.
An energy-saving desalination system, used for obtaining a salt water from a salt-water source and desalinating to generate a fresh water, and the system comprising: a salt-water magnetizing device disposed at an intake for magnetizing the salt water to generate a magnetized salt water, wherein the system further includes a re-magnetizing device disposed at a path that the magnetized salt water flows through in order to perform a second magnetization to the magnetized salt water; a salt-water filtering device coupled to the salt-water magnetizing device for filtering the magnetized salt water; a salt-water preheating device coupled to the salt-water filtering device for heating the magnetized salt water such that the magnetized salt water can reach a middle temperature; a salt-water reheating device coupled to the salt-water pre-heating device for heating the magnetized salt water such that the magnetized salt water can maintain in a higher temperature range; a nebulization device coupled to the salt-water reheating device to nebulize the magnetized salt water having a higher temperature into a mixing fog; and a condensing device coupled to the nebulization device to extract a fresh water from the mixing fog; wherein a condensation water required by the condensing device is a salt water extracted from the salt-water source. a salt-water magnetizing device disposed at an intake for magnetizing the salt water to generate a magnetized salt water, wherein the system further includes a re-magnetizing device disposed at a path that the magnetized salt water flows through in order to perform a second magnetization to the magnetized salt water; a salt-water filtering device coupled to the salt-water magnetizing device for filtering the magnetized salt water; a salt-water preheating device coupled to the salt-water filtering device for heating the magnetized salt water such that the magnetized salt water can reach a middle temperature; a salt-water reheating device coupled to the salt-water pre-heating device for heating the magnetized salt water such that the magnetized salt water can maintain in a higher temperature range; a nebulization device coupled to the salt-water reheating device to nebulize the magnetized salt water having a higher temperature into a mixing fog; and a condensing device coupled to the nebulization device to extract a fresh water from the mixing fog; wherein a condensation water required by the condensing device is a salt water extracted from the salt-water source.
An elevator car defining an interior space for accommodating passengers and/or cargo, the elevator car comprising: a support frame positioned above the interior space ; a working platform moveable between a stowed position, above the interior space , and an operational position, within the interior space ; and at least one extendable suspension arrangement arranged to suspend the working platform from the support frame , characterized by the extendable suspension arrangement comprising: a connection plate ; a first arm member connected at a first end to the support frame and slidably connected to a first connection point of the connection plate ; a second arm member connected at another first end to the working platform and slidably connected to a second connection point of the connection plate ; wherein the first arm member and the second arm member are configured to slide parallel to each other, along a sliding direction , in order to extend the extendable suspension arrangement when the working platform moves between the stowed position and the operational position, and wherein the first connection point and the second connection point have an offset from one another at least in a direction perpendicular to the sliding direction . a support frame positioned above the interior space ; a working platform moveable between a stowed position, above the interior space , and an operational position, within the interior space ; and at least one extendable suspension arrangement arranged to suspend the working platform from the support frame , characterized by the extendable suspension arrangement comprising: a connection plate ; a first arm member connected at a first end to the support frame and slidably connected to a first connection point of the connection plate ; a second arm member connected at another first end to the working platform and slidably connected to a second connection point of the connection plate ; wherein the first arm member and the second arm member are configured to slide parallel to each other, along a sliding direction , in order to extend the extendable suspension arrangement when the working platform moves between the stowed position and the operational position, and wherein the first connection point and the second connection point have an offset from one another at least in a direction perpendicular to the sliding direction . a connection plate ; a first arm member connected at a first end to the support frame and slidably connected to a first connection point of the connection plate ; a second arm member connected at another first end to the working platform and slidably connected to a second connection point of the connection plate ; wherein the first arm member and the second arm member are configured to slide parallel to each other, along a sliding direction , in order to extend the extendable suspension arrangement when the working platform moves between the stowed position and the operational position, and wherein the first connection point and the second connection point have an offset from one another at least in a direction perpendicular to the sliding direction .