mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the relative position between an object and a detector, wherein a relative movement between the object and the detector can be carried out in a movement direction, wherein the object has a plurality of different detection elements (2, 3) in a defined arrangement relative to each other and relative to the object, wherein the detector has a reading window for perceiving detection elements (2, 3) and wherein a determination of the relative position between the object and the detector is carried out when a perceived detection element (2, 3) has been identified - taking into account the known defined arrangement of the detection elements (2, 3) relative to each other and relative to the object - by means of the detector or by means of a determination device which cooperates with the detector, wherein the determination of the relative position between the object and the detector is carried out only when a plurality of detection elements (2, 3) which have been perceived by the reading window at the same time have been identified, characterised in that a planar geometry of the reading window and/or a planar geometry of a fading element which is arranged in front of the detector for fading out a predeterminable portion of the light which arrives from the object in the direction of the reading window of the detector is/are produced in such a manner that a determination of the relative position between the object and the detector with regard to a relative rotation between the object and the detector about a rotation axis is enabled. wherein the object has a plurality of different detection elements (2, 3) in a defined arrangement relative to each other and relative to the object, wherein the detector has a reading window for perceiving detection elements (2, 3) and wherein a determination of the relative position between the object and the detector is carried out when a perceived detection element (2, 3) has been identified - taking into account the known defined arrangement of the detection elements (2, 3) relative to each other and relative to the object - by means of the detector or by means of a determination device which cooperates with the detector, wherein the determination of the relative position between the object and the detector is carried out only when a plurality of detection elements (2, 3) which have been perceived by the reading window at the same time have been identified, characterised in that a planar geometry of the reading window and/or a planar geometry of a fading element which is arranged in front of the detector for fading out a predeterminable portion of the light which arrives from the object in the direction of the reading window of the detector is/are produced in such a manner that a determination of the relative position between the object and the detector with regard to a relative rotation between the object and the detector about a rotation axis is enabled.
A base station, BS, (310, 310a - 310c, 705, 840, 900) comprising: a controller module operable to obtain an indicator of a need for a quiescent subframe based on sensing the presence of one or more user equipments, UEs, (320, 710, 715, 720, 800) capable of device-to-device, D2D, communications in a cell of the BS (310, 310a - 310c, 705, 840, 900) and/or receiving a request for D2D communications, and operable to modify responsively thereto a first TDD uplink/downlink configuration to a second configuration that contains at least one additional downlink, DL, subframe, the controller module also operable to allocate the at least one additional DL subframe as an Almost Blank Subframe, ABS; and a transceiver operable to communicate the at least one ABS over an air interface; wherein the BS (310, 310a - 310c, 705, 840, 900) is adapted to inform some UEs (320, 710, 715, 720, 800) in the cell that it has made the at least one additional DL subframe an ABS, so that they modify their measurements accordingly, and so that they continue to monitor the at least one additional DL subframe for control signaling but will not attempt communication due to modification of the at least one additional DL subframe from uplink to downlink; and wherein the BS (310, 310a - 310c, 705, 840, 900) is adapted to inform some other UEs (320, 710, 715, 720, 800) in the cell that the at least one additional DL subframe is an ABS and available for D2D communications. a controller module operable to obtain an indicator of a need for a quiescent subframe based on sensing the presence of one or more user equipments, UEs, (320, 710, 715, 720, 800) capable of device-to-device, D2D, communications in a cell of the BS (310, 310a - 310c, 705, 840, 900) and/or receiving a request for D2D communications, and operable to modify responsively thereto a first TDD uplink/downlink configuration to a second configuration that contains at least one additional downlink, DL, subframe, the controller module also operable to allocate the at least one additional DL subframe as an Almost Blank Subframe, ABS; and a transceiver operable to communicate the at least one ABS over an air interface; wherein the BS (310, 310a - 310c, 705, 840, 900) is adapted to inform some UEs (320, 710, 715, 720, 800) in the cell that it has made the at least one additional DL subframe an ABS, so that they modify their measurements accordingly, and so that they continue to monitor the at least one additional DL subframe for control signaling but will not attempt communication due to modification of the at least one additional DL subframe from uplink to downlink; and wherein the BS (310, 310a - 310c, 705, 840, 900) is adapted to inform some other UEs (320, 710, 715, 720, 800) in the cell that the at least one additional DL subframe is an ABS and available for D2D communications.
An ink jet recording apparatus comprising: a head that ejects droplets of ink in which there is a hysteresis in phase transition temperature and in which a freezing point is lower than a melting point; a flow passage portion for supplying the ink to the head, the flow passage portion including, in a part thereof, a reservoir unit that reserves the ink; and a temperature adjustment unit capable of adjusting temperatures of the flow passage portion and the head independently of each other, wherein the temperature adjustment unit controls the temperatures of the flow passage portion and the head to make the ink in the head have a temperature equal to or higher than the melting point of the ink so that the ink in the head becomes liquid from solid after making the ink in the flow passage portion have the temperature equal to or higher than the melting point of the ink so that the ink in the flow passage portion is turned to liquid from solid, and also to make the ink in the flow passage portion have a temperature higher than the freezing point of the ink and lower than the melting point of the ink after making the ink in the flow passage portion have the temperature equal to or higher than the melting point of the ink so that the ink in the flow passage portion is turned to liquid from solid. a head that ejects droplets of ink in which there is a hysteresis in phase transition temperature and in which a freezing point is lower than a melting point; a flow passage portion for supplying the ink to the head, the flow passage portion including, in a part thereof, a reservoir unit that reserves the ink; and a temperature adjustment unit capable of adjusting temperatures of the flow passage portion and the head independently of each other, wherein the temperature adjustment unit controls the temperatures of the flow passage portion and the head to make the ink in the head have a temperature equal to or higher than the melting point of the ink so that the ink in the head becomes liquid from solid after making the ink in the flow passage portion have the temperature equal to or higher than the melting point of the ink so that the ink in the flow passage portion is turned to liquid from solid, and also to make the ink in the flow passage portion have a temperature higher than the freezing point of the ink and lower than the melting point of the ink after making the ink in the flow passage portion have the temperature equal to or higher than the melting point of the ink so that the ink in the flow passage portion is turned to liquid from solid.
A polycarbonate-polyorganosiloxane copolymer, wherein said copolymer contains carbon tetrachloride, wherein the concentration of carbon tetrachloride is less than 4 ppm by mass and the copolymer has a repeating unit represented by formula and a constituent unit represented by formula: wherein: R 1 and R 2 each independently represent a halogen atom, an alkyl group having 1 to 6 carbon atoms, or an alkoxy group having 1 to 6 carbon atoms; X represents a single bond, an alkylene group having 1 to 8 carbon atoms, an alkylidene group having 2 to 8 carbon atoms, a cycloalkylene group having 5 to 15 carbon atoms, a cycloalkylidene group having 5 to 15 carbon atoms, -S-, -SO-, -SO 2 -, -O-, or -CO-; and a and b each independently represent an integer of 0 to 4; wherein: R 3 to R 6 each independently represent a hydrogen atom, a halogen atom, an alkyl group having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, or an aryl group having 6 to 12 carbon atoms; Y represents a single bond or an organic residue including an aliphatic or aromatic moiety; and n represents an average repetition number, the average repetition number n being 70 to 120. R 1 and R 2 each independently represent a halogen atom, an alkyl group having 1 to 6 carbon atoms, or an alkoxy group having 1 to 6 carbon atoms; X represents a single bond, an alkylene group having 1 to 8 carbon atoms, an alkylidene group having 2 to 8 carbon atoms, a cycloalkylene group having 5 to 15 carbon atoms, a cycloalkylidene group having 5 to 15 carbon atoms, -S-, -SO-, -SO 2 -, -O-, or -CO-; and a and b each independently represent an integer of 0 to 4; wherein: R 3 to R 6 each independently represent a hydrogen atom, a halogen atom, an alkyl group having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, or an aryl group having 6 to 12 carbon atoms; Y represents a single bond or an organic residue including an aliphatic or aromatic moiety; and n represents an average repetition number, the average repetition number n being 70 to 120. R 3 to R 6 each independently represent a hydrogen atom, a halogen atom, an alkyl group having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, or an aryl group having 6 to 12 carbon atoms; Y represents a single bond or an organic residue including an aliphatic or aromatic moiety; and n represents an average repetition number, the average repetition number n being 70 to 120.
A pipe straightener, comprising three roller wheel units and a restraining sleeve, wherein each of the roller wheel units is juxtaposed, and the roller wheel units enclose and are configured to form a long straight-formed passageway, the passageway is used to enable metal pipes to pass therethrough; characterized in that the restraining sleeve encloses and covers each of the roller wheel units, thereby restraining each of the roller wheel units; each of the roller wheel units primarily comprises a wheel carrier and a plurality of roller wheels, one side of the wheel carrier is a first side, and the other side is a second side, the first side is adjacent to the passageway, and the second side is adjacent to the restraining sleeve, each of the roller wheels is respectively pivotal disposed on the first side, and the roller wheels are adjacent to the passageway.
A stitchwork status checking apparatus that checks a stitchwork status of a stitchwork pattern selected and currently stitched by a sewing machine, the stitchwork status checking apparatus comprising: a stitchwork data receiver unit that receives stitchwork data on the stitchwork pattern currently stitched by the sewing machine; a converter unit that converts the received stitchwork data into a unique code; a status data receiver unit that receives a unique code converted based on the stitchwork data currently stitched by the sewing machine; and a code comparator unit that compares a code converted by the converter unit with a code received by the status data receiver unit, wherein: the stitchwork data receiver unit receives the stitchwork data through a first transmission protocol that surely transmits data to a transmission destination; and the status data receiver unit receives the code through a second transmission protocol different from the first transmission protocol that transmits data to a transmission destination within a short time. a stitchwork data receiver unit that receives stitchwork data on the stitchwork pattern currently stitched by the sewing machine; a converter unit that converts the received stitchwork data into a unique code; a status data receiver unit that receives a unique code converted based on the stitchwork data currently stitched by the sewing machine; and a code comparator unit that compares a code converted by the converter unit with a code received by the status data receiver unit, wherein: the stitchwork data receiver unit receives the stitchwork data through a first transmission protocol that surely transmits data to a transmission destination; and the status data receiver unit receives the code through a second transmission protocol different from the first transmission protocol that transmits data to a transmission destination within a short time. the stitchwork data receiver unit receives the stitchwork data through a first transmission protocol that surely transmits data to a transmission destination; and the status data receiver unit receives the code through a second transmission protocol different from the first transmission protocol that transmits data to a transmission destination within a short time.
A method of coating a substrate with cryo-milled, nano-grained particles, the method comprising: forming a face-centered-cubic gamma matrix comprising nickel, cobalt, chromium, tungsten and molybdenum; adding a dispersion strengthening material to the gamma matrix to form a first mixture; cryo-milling the first mixture to form a second mixture, the second mixture having a nano-grained structure; and cold spraying the second mixture onto a substrate to form a coating, the coating having a nano-grained structure, wherein forming the nickel based face-centered-cubic gamma matrix includes admixing 30-50% nickel, 10-30% cobalt, 4-10% molybdenum, 4-10% tungsten, 10-30% chromium and at least one of 0-6% rhenium, 0-6% niobium, 0-6% tantalum, 0-5% aluminum, and 0-5% titanium. forming a face-centered-cubic gamma matrix comprising nickel, cobalt, chromium, tungsten and molybdenum; adding a dispersion strengthening material to the gamma matrix to form a first mixture; cryo-milling the first mixture to form a second mixture, the second mixture having a nano-grained structure; and cold spraying the second mixture onto a substrate to form a coating, the coating having a nano-grained structure, wherein forming the nickel based face-centered-cubic gamma matrix includes admixing 30-50% nickel, 10-30% cobalt, 4-10% molybdenum, 4-10% tungsten, 10-30% chromium and at least one of 0-6% rhenium, 0-6% niobium, 0-6% tantalum, 0-5% aluminum, and 0-5% titanium.
A method for controlling an edge node, comprising: dividing, by a control node, a plurality of edge nodes comprised in an edge node cluster into N edge node sets, wherein each edge node set comprises at least two edge nodes, and N is a positive integer; selecting, by the control node, M second edge nodes from a first edge node set, wherein the first edge node set is one of the N edge node sets, and M is a positive integer; and sending, by the control node, a control rule to the M second edge nodes, wherein the control rule indicates the second edge node to perform fault detection on a first edge node, and the first edge node belongs to the first edge node set, characterized by comprising that the dividing, by a control node, a plurality of edge nodes comprised in an edge node cluster into N edge node sets comprises: selecting, by the control node based on a to-be-deployed application image and an application image that has been deployed on the plurality of edge nodes comprised in the edge node cluster, K edge nodes from the plurality of edge nodes to form the first edge node set, wherein K is a positive integer greater than M; and enabling, by the control node, the K edge nodes to form a hash ring. dividing, by a control node, a plurality of edge nodes comprised in an edge node cluster into N edge node sets, wherein each edge node set comprises at least two edge nodes, and N is a positive integer; selecting, by the control node, M second edge nodes from a first edge node set, wherein the first edge node set is one of the N edge node sets, and M is a positive integer; and sending, by the control node, a control rule to the M second edge nodes, wherein the control rule indicates the second edge node to perform fault detection on a first edge node, and the first edge node belongs to the first edge node set, characterized by comprising that the dividing, by a control node, a plurality of edge nodes comprised in an edge node cluster into N edge node sets comprises: selecting, by the control node based on a to-be-deployed application image and an application image that has been deployed on the plurality of edge nodes comprised in the edge node cluster, K edge nodes from the plurality of edge nodes to form the first edge node set, wherein K is a positive integer greater than M; and enabling, by the control node, the K edge nodes to form a hash ring. selecting, by the control node based on a to-be-deployed application image and an application image that has been deployed on the plurality of edge nodes comprised in the edge node cluster, K edge nodes from the plurality of edge nodes to form the first edge node set, wherein K is a positive integer greater than M; and enabling, by the control node, the K edge nodes to form a hash ring.
A method for transmitting system information, the method comprising: determining (S 110), by a network device, a resource for sending the system information and resources for sending other system information than the system information; wherein the system information is part of all system information that the network device needs to send to the at least one terminal device, and the other system information is remaining system information that the network device has not sent to the terminal device yet; sending, by the network device, first indication information to the at least one terminal device, wherein the first indication information is used for the at least one terminal device to determine the resource for receiving the system information; and sending, by the network device, the system information on the resource for sending the system information and the other system information on the resources for sending the other system information; the method characterized in that the system information comprises second indication information, and the second indication information is used for the at least one terminal device to determine resources for receiving the other system information than the system information; wherein the second indication information is further used for indicating content information of the other system information. determining (S 110), by a network device, a resource for sending the system information and resources for sending other system information than the system information; wherein the system information is part of all system information that the network device needs to send to the at least one terminal device, and the other system information is remaining system information that the network device has not sent to the terminal device yet; sending, by the network device, first indication information to the at least one terminal device, wherein the first indication information is used for the at least one terminal device to determine the resource for receiving the system information; and sending, by the network device, the system information on the resource for sending the system information and the other system information on the resources for sending the other system information; the method characterized in that the system information comprises second indication information, and the second indication information is used for the at least one terminal device to determine resources for receiving the other system information than the system information; wherein the second indication information is further used for indicating content information of the other system information.
An outside handle device for a vehicle door, the outside handle device comprising a handle main body having a grip portion disposed outside an outer panel of a vehicle door, and a base plate (17A, 17B, 17C) fixed to an inner face of the outer panel, the handle main body engaging the base plate (17A, 17B, 17C), characterized in that the outer panel is provided with a latching hole and an insertion hole, the latching hole having inserted therethrough and engaged therewith a first bolt or a second bolt, the first bolt having an enlarged diameter head portion and being screwed into one end part in a longitudinal direction of the grip portion, the second bolt having a base thereof implanted in one end part in the longitudinal direction of the grip portion and having a nut screwed around a tip side thereof, and the insertion hole having inserted therethrough a penetrating portion that is provided on the other end part in the longitudinal direction of the grip portion, penetrates into the outer panel, and has a latching groove provided on the outer periphery thereof, the handle main body being capable of being provisionally assembled onto the outer panel so that the penetrating portion is inserted through the insertion hole while engaging the first bolt or the second bolt with the latching hole, and the base plate (17A to 17C) is provided with a first engagement recess (43A, 43B, 43C) and a second engagement recess so as to open on a side edge of the base plate (17A to 17C), the first engagement recess (43A, 43B, 43C) housing the first bolt or the second bolt so that one end part of the base plate (17A to 17C) can engage with the enlarged diameter head portion or the nut, and the second engagement recess housing the penetrating portion so that the other end part of the base plate (17A to 17C) can engage with the latching groove of the penetrating portion by pivoting the base plate (17A to 17C) having the first bolt or the second bolt housed in the first engagement recess (43A to 43C) around an axis of the first bolt or the second bolt.
A composition comprising solid particles of an oxide of an element selected from the group consisting of Si, Ti, Fe, Zn and Al, wherein the solid particles each have a surface functionalized with at least one terminal cyclocarbonate group attached to the surface via a linker, wherein the at least one terminal cyclocarbonate group and the linker has the structure set forth in formula: wherein: n=1 or 2; is an element selected from the group consisting of O, N and C; represents an alkylene group carrying 1-20 C atoms, that can be linear, branched, or cyclic, or connected to a carbonyl or an ether group; q = 0 or 1; R 1 is a coupling reactive group serving as a linker selected from silanes, siloxanes, phosphates or carboxylates, wherein the composition is formulated as a consumer product. n=1 or 2; is an element selected from the group consisting of O, N and C; represents an alkylene group carrying 1-20 C atoms, that can be linear, branched, or cyclic, or connected to a carbonyl or an ether group; q = 0 or 1; R 1 is a coupling reactive group serving as a linker selected from silanes, siloxanes, phosphates or carboxylates, wherein the composition is formulated as a consumer product.