mhurhangee/ep-ind-claims huggingface dataset:
A surface identification device for the autonomous movement of a moving vehicle at a distance from that surface, the surface identification device comprising: a) a surface detection head defining a coordinate system fixed to the detection head with an origin at the center of the detection head, an axis of advance (Xe), a drift axis (Ye), an ascent axis (Ze), the detection head including at least one measure sensor for a quantity (w) depending on the distance (D surface) of the center of the detection head from the surface, each sensor covering a detection zone centered on a line of sight; b) means for orienting the detection zone for each sensor by rotating the detection zone around the drift axis (Ye); and c) a controller suitable for receiving and processing the signals from each sensor and controlling the system for orienting the detection zone based on said signals, characterized in that the controller is configured for estimating the direction of the perpendicular to the surface in said coordinate system based on said signals, and reorienting, by means of said orientation means, the line of sight of the detection zone of each sensor into a direction separated by a determined reorientation angle (γ) from the direction of said perpendicular. a) a surface detection head defining a coordinate system fixed to the detection head with an origin at the center of the detection head, an axis of advance (Xe), a drift axis (Ye), an ascent axis (Ze), the detection head including at least one measure sensor for a quantity (w) depending on the distance (D surface) of the center of the detection head from the surface, each sensor covering a detection zone centered on a line of sight; b) means for orienting the detection zone for each sensor by rotating the detection zone around the drift axis (Ye); and c) a controller suitable for receiving and processing the signals from each sensor and controlling the system for orienting the detection zone based on said signals,
A multi-static linear array apparatus for synthetic imaging of an object comprising: a. a first column linear array extending over at least two unit cell lengths, each unit cell length including a first number of transmitter elements spaced apart by a first distance; and b. a second column linear array extending over at least two unit cell lengths, each unit cell length including a second number of receiver elements spaced apart by a second distance, such that effective samples are obtained at a location approximately half-way between phase centres of the individual transmitter and receiver pairs of the transmitter and receiver elements, wherein the first number is a non-integer multiple of the second number and the second number is a non-integer multiple of the first number, and a number of effective samples obtained within a unit cell length is at least twice the number of the plurality of transmitter and receiver elements in a unit cell, wherein the second number is greater than the first number, and the first number and the second number have no common factors, wherein each transmitter element in the first column is spaced apart a distance approximately equal to the unit cell length divided by the first number, and each receiver element in the second column is spaced apart a distance approximately equal to the unit cell length divided by the second number. a. a first column linear array extending over at least two unit cell lengths, each unit cell length including a first number of transmitter elements spaced apart by a first distance; and b. a second column linear array extending over at least two unit cell lengths, each unit cell length including a second number of receiver elements spaced apart by a second distance, such that effective samples are obtained at a location approximately half-way between phase centres of the individual transmitter and receiver pairs of the transmitter and receiver elements, wherein the first number is a non-integer multiple of the second number and the second number is a non-integer multiple of the first number, and a number of effective samples obtained within a unit cell length is at least twice the number of the plurality of transmitter and receiver elements in a unit cell, wherein the second number is greater than the first number, and the first number and the second number have no common factors, wherein each transmitter element in the first column is spaced apart a distance approximately equal to the unit cell length divided by the first number, and each receiver element in the second column is spaced apart a distance approximately equal to the unit cell length divided by the second number.
A communication control system comprising a control device, which includes: status notification signal processing capability obtaining means configured to obtain, based on a load status of the control device that controls nodes included in a network and receives a content of a control signal sent and received between the nodes as a status notification signal, a capability for processing the status notification signal; monitoring area identifying means configured to determine, based on network status information related to communication on the network, area segments each including an arbitrarily number of the nodes; and sending interval control signal transmitting means configured to calculate, based on the capability, a sending interval of the status notification signal of the nodes for each of the area segments, and sending the sending interval to the nodes included in the corresponding area segment, wherein the sending interval control signal transmitting means is configured to calculate the sending interval based on a relation and a condition, the relation being that a total value multiplied by a predetermined coefficient is equal to the capability, the total value being a total of values each obtained by dividing a number of the nodes included in each of the area segments by the sending interval for the corresponding area segment, the condition being a condition of a length relation of the sending interval between the area segments. status notification signal processing capability obtaining means configured to obtain, based on a load status of the control device that controls nodes included in a network and receives a content of a control signal sent and received between the nodes as a status notification signal, a capability for processing the status notification signal; monitoring area identifying means configured to determine, based on network status information related to communication on the network, area segments each including an arbitrarily number of the nodes; and sending interval control signal transmitting means configured to calculate, based on the capability, a sending interval of the status notification signal of the nodes for each of the area segments, and sending the sending interval to the nodes included in the corresponding area segment, wherein the sending interval control signal transmitting means is configured to calculate the sending interval based on a relation and a condition, the relation being that a total value multiplied by a predetermined coefficient is equal to the capability, the total value being a total of values each obtained by dividing a number of the nodes included in each of the area segments by the sending interval for the corresponding area segment, the condition being a condition of a length relation of the sending interval between the area segments.
A composition comprising a solid support, wherein said solid support comprises a plurality of oligonucleotides, wherein each of said plurality of oligonucleotides comprises a cellular label and a molecular label, wherein each cellular label is the same, wherein said molecular labels of at least 100 of said plurality of oligonucleotides are different and provide identifying information for specific nucleic acid species that hybridise to the oligonucleotide, wherein said solid support comprises a bead, and wherein said plurality of oligonucleotides further comprises a target binding region.
A cell selection method, comprising: searching, by a terminal device, for a first candidate cell; receiving, by the terminal device, a system message of the first candidate cell, wherein the system message of the first candidate cell comprises parameter information of the first candidate cell; bandwidth information of the first candidate cell, wherein the bandwidth information is used to indicate a bandwidth of the first candidate cell; and information used to indicate the following content: a public land mobile network (PLMN) of the first candidate cell is a PLMN selected by a non-access stratum, a PLMN of the first candidate cell is a registered PLMN, or a PLMN of the first candidate cell is a PLMN in an equivalent PLMN list; the first candidate cell is a cell that is not barred; and a tracking area identity of the first candidate cell is not a TAI in a list of forbidden tracking areas for roaming; determining, by the terminal device, a cell selection reception level value Srxlev and a cell selection quality value Squal of the first candidate cell based on cell measurement values and the parameter information of the first candidate cell, and determining that Srxlev > 0 and Squal > 0; and when the bandwidth of the first candidate cell is greater than a preset threshold, camping, by the terminal device, on the first candidate cell. searching, by a terminal device, for a first candidate cell; receiving, by the terminal device, a system message of the first candidate cell, wherein the system message of the first candidate cell comprises parameter information of the first candidate cell; bandwidth information of the first candidate cell, wherein the bandwidth information is used to indicate a bandwidth of the first candidate cell; and information used to indicate the following content: a public land mobile network (PLMN) of the first candidate cell is a PLMN selected by a non-access stratum, a PLMN of the first candidate cell is a registered PLMN, or a PLMN of the first candidate cell is a PLMN in an equivalent PLMN list; the first candidate cell is a cell that is not barred; and a tracking area identity of the first candidate cell is not a TAI in a list of forbidden tracking areas for roaming; determining, by the terminal device, a cell selection reception level value Srxlev and a cell selection quality value Squal of the first candidate cell based on cell measurement values and the parameter information of the first candidate cell, and determining that Srxlev > 0 and Squal > 0; and when the bandwidth of the first candidate cell is greater than a preset threshold, camping, by the terminal device, on the first candidate cell.
A method of manufacturing a thermoelectric module comprising a substrate and at least one conductive or semiconductor polymer film deposited on a surface of the substrate, the method comprising manufacturing the conductive polymer film independently from the surface of the substrate and transferring the conductive polymer film onto the surface of the substrate, in which the manufacturing of the conductive polymer film comprises: ▪ depositing the conductive polymer film directly on a deposition substrate to form a stack only comprising the polymer film and the deposition substrate; and ▪ immersing the stack formed of the conductive polymer film and of the deposition substrate in a bath to release the conductive polymer film, and characterized in that said transfer comprises: ▪ immersing the conductive polymer film in a transfer bath to obtain a conductive polymer film which is solvated, self-supporting, and capable of matching the shape of the substrate surface; ▪ applying the conductive polymer film in its solvated state on the substrate to match the shape of the surface thereof; and ▪ drying the solvated conductive polymer film. ▪ depositing the conductive polymer film directly on a deposition substrate to form a stack only comprising the polymer film and the deposition substrate; and ▪ immersing the stack formed of the conductive polymer film and of the deposition substrate in a bath to release the conductive polymer film, ▪ immersing the conductive polymer film in a transfer bath to obtain a conductive polymer film which is solvated, self-supporting, and capable of matching the shape of the substrate surface; ▪ applying the conductive polymer film in its solvated state on the substrate to match the shape of the surface thereof; and ▪ drying the solvated conductive polymer film.
An induction heating apparatus comprising a heating coil capable of induction heating an object to be heated which is made of a low magnetic permeability material having an electrical conductivity nearly equal to or higher than that of aluminum or copper, and an electrical conductor provided between said heating coil and said object to be heated, wherein when said object to be heated is disposed so as to be opposed to said heating coil, said electrical conductor has a buoyancy-decreasing function of decreasing the buoyancy caused by the action of the magnetic field generated from said heating coil and the induction current induced in said object to be heated and exerted on said object to be heated.
A method for uploading an image file captured using an integrated camera on a mobile communication device to an online image repository, the method comprising: awaiting, at the mobile communication device, a capture of an image file by a camera of the mobile communication device; determining (504B: Y), at the mobile communication device, that the image file has been captured; receiving, at the mobile communication device, a specified viewing privilege for the image file, the specified viewing privilege received based on input from a user of the mobile communication device by an input means (116, 117) of the mobile communication device, the viewing privilege including that the image file is for private viewing or that the image file is for viewing by a group of users of an online repository; configuring, at the mobile communication device, in accordance with the received specified viewing privilege, the viewing privilege associated with the image file; uploading the image file from the mobile communication device to an online repository; and obtaining, at the mobile communication device, a Uniform Resource Locator, "URL", link to the image file at the online repository, the link including a unique identifier associated with the image file. awaiting, at the mobile communication device, a capture of an image file by a camera of the mobile communication device; determining (504B: Y), at the mobile communication device, that the image file has been captured; receiving, at the mobile communication device, a specified viewing privilege for the image file, the specified viewing privilege received based on input from a user of the mobile communication device by an input means (116, 117) of the mobile communication device, the viewing privilege including that the image file is for private viewing or that the image file is for viewing by a group of users of an online repository; configuring, at the mobile communication device, in accordance with the received specified viewing privilege, the viewing privilege associated with the image file; uploading the image file from the mobile communication device to an online repository; and obtaining, at the mobile communication device, a Uniform Resource Locator, "URL", link to the image file at the online repository, the link including a unique identifier associated with the image file.
A system comprising: an inflatable bone tamp including a plurality of linearly aligned expandable bodies (28, 30, 32); an elongated tubular shaft (92; 72) extending through the plurality of linearly aligned expandable bodies (28, 30, 32), the elongated tubular shaft (92; 72) including a shaft wall and an interior partition structure; a plurality of channels (94, 96, 98) extending through the shaft (92; 72), each of the channels (94, 96, 98) formed by a segment of the shaft wall and the interior partition structure and each of the channels (94, 96, 98) in communication with the respective one of the plurality of expandable bodies (28, 30, 32) via distal openings (44, 48, 52) in the shaft; and a connector system (90; 70) coupled to the shaft (92; 72), wherein each of the channels (94, 96, 98) has a respective proximal opening (99, 100, 102; 74, 76, 78), the proximal openings (99, 100, 102; 74, 76, 78) being distributed radially around the shaft (92; 72) or are linearly aligned, wherein the connector system (90; 70) includes a connector (104; 80) and a sleeve member (106; 82) rotatably or slideably coupled to the shaft (92; 72), and is switchable between positions in each of which the connector (104; 80) is in communication with the respective one of the proximal openings (99, 100, 102; 74, 76, 78), and wherein each of the expandable bodies is independently inflatable. an inflatable bone tamp including a plurality of linearly aligned expandable bodies (28, 30, 32); an elongated tubular shaft (92; 72) extending through the plurality of linearly aligned expandable bodies (28, 30, 32), the elongated tubular shaft (92; 72) including a shaft wall and an interior partition structure; a plurality of channels (94, 96, 98) extending through the shaft (92; 72), each of the channels (94, 96, 98) formed by a segment of the shaft wall and the interior partition structure and each of the channels (94, 96, 98) in communication with the respective one of the plurality of expandable bodies (28, 30, 32) via distal openings (44, 48, 52) in the shaft; and a connector system (90; 70) coupled to the shaft (92; 72), wherein each of the channels (94, 96, 98) has a respective proximal opening (99, 100, 102; 74, 76, 78), the proximal openings (99, 100, 102; 74, 76, 78) being distributed radially around the shaft (92; 72) or are linearly aligned, wherein the connector system (90; 70) includes a connector (104; 80) and a sleeve member (106; 82) rotatably or slideably coupled to the shaft (92; 72), and is switchable between positions in each of which the connector (104; 80) is in communication with the respective one of the proximal openings (99, 100, 102; 74, 76, 78), and wherein each of the expandable bodies is independently inflatable.
A method for controlling an amount of power delivered to an electrical load, implemented in a control circuit coupled to a load regulation circuit and configured to control an average magnitude (I AVE) of a load current (I LOAD) and to adjust a target load current (I TRGT), wherein the load regulation circuit is configured to control the magnitude of the load current (I LOAD) conducted through the electrical load to control the amount of power delivered to the electrical load, the load regulation circuit comprising an inverter circuit (Q210, Q212), wherein the control circuit is configured to control the inverter circuit (Q210,Q212) to operate in active state periods (T ACTIVE) during which the inverter circuit is active and inactive state periods (T INACTIVE) during which the inverter circuit is inactive, the control circuit is configured to operate in at least a low-end mode, an intermediate mode and a normal mode, the method is characterized in comprising: during a normal mode of operation of the control circuit, regulating an average magnitude (I AVE) of the load current (I LOAD) conducted through the electrical load by holding a burst duty cycle (DC BURST) of a load regulation circuit constant and adjusting the target load current (I TRGT) for the load current (I LOAD); and during the intermediate mode, keeping the length of the inactive state periods (T INACTIVE) constant and adjusting the length of the active state periods (T ACTIVE) in order to adjust the burst duty cycle (DC BURST) and the average magnitude (I AVE) of the load current (I LOAD), at the same time as the target load current (I TRGT) is kept constant; and during the low-end mode, keeping the length of the active state periods (T ACTIVE) constant and adjusting the length of the inactive state periods (T INACTIVE) in order to adjust the burst duty cycle (DC BURST) and the average magnitude (I AVE) of the load current (I LOAD), at the same time as the target load current (I TRGT) is kept constant. during a normal mode of operation of the control circuit, regulating an average magnitude (I AVE) of the load current (I LOAD) conducted through the electrical load by holding a burst duty cycle (DC BURST) of a load regulation circuit constant and adjusting the target load current (I TRGT) for the load current (I LOAD); and during the intermediate mode, keeping the length of the inactive state periods (T INACTIVE) constant and adjusting the length of the active state periods (T ACTIVE) in order to adjust the burst duty cycle (DC BURST) and the average magnitude (I AVE) of the load current (I LOAD), at the same time as the target load current (I TRGT) is kept constant; and during the low-end mode, keeping the length of the active state periods (T ACTIVE) constant and adjusting the length of the inactive state periods (T INACTIVE) in order to adjust the burst duty cycle (DC BURST) and the average magnitude (I AVE) of the load current (I LOAD), at the same time as the target load current (I TRGT) is kept constant.
A method of automatically detecting connectivity between an emulation controller (12, 21) and a plurality of target devices, the emulation controller and the plurality of target devices each comprising a plurality of terminals, the terminals coupled by cabling for signaling between the emulation controller and the plurality of target devices, the method comprising the following steps: each target device tri-stating all of its terminals; the emulation controller (12, 21) tri-stating all of its terminals; one of the target devices driving a predetermined logic level on each of its terminals in sequence, one terminal at a time, while maintaining the remainder of its terminals tri-stated; each of the remaining target devices performing said driving and maintaining step in sequence after said one target device; and each of the target devices reading logic levels at its terminals during each of said driving steps, and the emulation controller (12, 21) reading logic levels at its terminals during each of said driving steps. each target device tri-stating all of its terminals; the emulation controller (12, 21) tri-stating all of its terminals; one of the target devices driving a predetermined logic level on each of its terminals in sequence, one terminal at a time, while maintaining the remainder of its terminals tri-stated; each of the remaining target devices performing said driving and maintaining step in sequence after said one target device; and each of the target devices reading logic levels at its terminals during each of said driving steps, and the emulation controller (12, 21) reading logic levels at its terminals during each of said driving steps.