mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: generating a ranging model of a ranging system that includes a drilling wellbore to be drilled; calculating a predicted electromagnetic field signal along measured depths of the drilling wellbore based on the ranging model; performing the following operations until the drilling wellbore has been drilled to a defined depth, drilling, with a drill string, the drilling wellbore to an increment of the defined depth; detecting, by a sensor positioned on the drill string, an electromagnetic field emanating from a target wellbore; determining ranging measurements to the target wellbore at the increment of the defined depth based on the electromagnetic field; calibrating the predicted electromagnetic field signal for deeper depths based on the real time ranging measurements; determining accuracy of the ranging measurements for deeper depths in the wellbore; and modifying the drilling of the drilling wellbore or adjusting drilling operations based on the predicted accuracy of the ranging measurements for deeper depths. generating a ranging model of a ranging system that includes a drilling wellbore to be drilled; calculating a predicted electromagnetic field signal along measured depths of the drilling wellbore based on the ranging model; performing the following operations until the drilling wellbore has been drilled to a defined depth, drilling, with a drill string, the drilling wellbore to an increment of the defined depth; detecting, by a sensor positioned on the drill string, an electromagnetic field emanating from a target wellbore; determining ranging measurements to the target wellbore at the increment of the defined depth based on the electromagnetic field; calibrating the predicted electromagnetic field signal for deeper depths based on the real time ranging measurements; determining accuracy of the ranging measurements for deeper depths in the wellbore; and modifying the drilling of the drilling wellbore or adjusting drilling operations based on the predicted accuracy of the ranging measurements for deeper depths. drilling, with a drill string, the drilling wellbore to an increment of the defined depth; detecting, by a sensor positioned on the drill string, an electromagnetic field emanating from a target wellbore; determining ranging measurements to the target wellbore at the increment of the defined depth based on the electromagnetic field; calibrating the predicted electromagnetic field signal for deeper depths based on the real time ranging measurements; determining accuracy of the ranging measurements for deeper depths in the wellbore; and modifying the drilling of the drilling wellbore or adjusting drilling operations based on the predicted accuracy of the ranging measurements for deeper depths.
A method for manufacturing multi-layered substrates, the method comprising: providing a handle substrate, the handle substrate having a backside and a face; providing a donor substrate, the donor substrate having a backside, a face, a cleave region, and a layer of material defined between the cleave region and the face; bonding the face of the donor substrate to the face of the handle substrate to form a multilayer structure; coupling a platen structure to the backside of the handle substrate, wherein the platen structure comprises a porous material; applying a vacuum to the platen structure to firmly engage the bonded multilayer structure onto the platen structure to increase the stiffness of the multilayered structure; and initiating a controlled cleaving process within a portion of the cleave region of the donor substrate while the handle substrate of the multilayered structure remains engaged with the platen structure to begin removal of the layer of material from the donor substrate at a portion of the cleave region. providing a handle substrate, the handle substrate having a backside and a face; providing a donor substrate, the donor substrate having a backside, a face, a cleave region, and a layer of material defined between the cleave region and the face; bonding the face of the donor substrate to the face of the handle substrate to form a multilayer structure; coupling a platen structure to the backside of the handle substrate, wherein the platen structure comprises a porous material; applying a vacuum to the platen structure to firmly engage the bonded multilayer structure onto the platen structure to increase the stiffness of the multilayered structure; and initiating a controlled cleaving process within a portion of the cleave region of the donor substrate while the handle substrate of the multilayered structure remains engaged with the platen structure to begin removal of the layer of material from the donor substrate at a portion of the cleave region.
Curable composition for production of coatings with an antimicrobial property, comprising - at least one film-forming polymer, - at least one up-conversion phosphor, - optionally at least one additive, - optionally at least one curing agent, wherein the phosphor is selected from the idealized general formula Lu 3-a-b-n Ln b (Mg 1-z Ca z) a Li n (Al 1-u-v Ga u Sc v) 5-a-2n (Si 1-d-e Zr d Hf e) a+2n O 12 I where a = 0 - 1, 1 ≥ b > 0, d = 0 - 1, e = 0 - 1, n = 0 - 1, z = 0 - 1, u = 0 - 1, v = 0 - 1, with u+v ≤ 1 and d+e ≤ 1; Ln = praseodymium (Pr), gadolinium (Gd), erbium (Er), neodymium (Nd), yttrium, Lu = lutetium, Li = lithium. - at least one film-forming polymer, - at least one up-conversion phosphor, - optionally at least one additive, - optionally at least one curing agent, wherein the phosphor is selected from the idealized general formula Lu 3-a-b-n Ln b (Mg 1-z Ca z) a Li n (Al 1-u-v Ga u Sc v) 5-a-2n (Si 1-d-e Zr d Hf e) a+2n O 12 I where a = 0 - 1, 1 ≥ b > 0, d = 0 - 1, e = 0 - 1, n = 0 - 1, z = 0 - 1, u = 0 - 1, v = 0 - 1, with u+v ≤ 1 and d+e ≤ 1; Ln = praseodymium (Pr), gadolinium (Gd), erbium (Er), neodymium (Nd), yttrium, Lu = lutetium, Li = lithium.
Method for determining the bobbin diameter of cross-wound bobbins on a textile machine producing cross-wound bobbins, with a creel for holding a rotatable cross-wound bobbin, a thread displacement device that can be activated in a defined manner for traversing a thread running onto the cross-wound bobbin and a drive that can be activated in a defined manner to rotate the cross-wound bobbin, wherein the two drives are independent of one another and the rotational speeds of the bobbin drive roller and the cross-wound bobbin are detected in order to calculate therefrom the ratio and ultimately the theoretical cross-wound bobbin diameter, characterised in that the bobbin drive roller is cyclically switched on and off and in that in the run-down phases while the bobbin drive roller is not driven, the rotational speeds of the bobbin drive roller and the cross-wound bobbin are detected in order to calculate therefrom the ratio and ultimately the actual cross-wound bobbin diameter.
A coupling sleeve for a quick-acting hose coupling having a base body, whereby the coupling sleeve is adapted to be fixed onto the base body, with the base body having at least one opening defining a slot through which at least part of a locking element is able to pass, the coupling sleeve is adapted to move between an engaged position and a disengaged position relative to the base body of the hose coupling, in the engaged position the locking element is held in a position where at least part of it is passed through the slot defined by the base body; and in the disengaged position at least part of the locking element moves its positional relation to the slot; whereby the coupling sleeve further includes at least one elastomeric, rubber like element adapted to bias the coupling sleeve in the engaged position characterized in that: the coupling sleeve is configured such that in the engaged position of the coupling sleeve the elastomeric, rubber like element has a C-shaped deformation, and in the disengaged position of the coupling sleeve the elastomeric, rubber like element has an S-shaped deformation. the coupling sleeve is adapted to be fixed onto the base body, with the base body having at least one opening defining a slot through which at least part of a locking element is able to pass, the coupling sleeve is adapted to move between an engaged position and a disengaged position relative to the base body of the hose coupling, in the engaged position the locking element is held in a position where at least part of it is passed through the slot defined by the base body; and in the disengaged position at least part of the locking element moves its positional relation to the slot; whereby the coupling sleeve further includes at least one elastomeric, rubber like element adapted to bias the coupling sleeve in the engaged position characterized in that: the coupling sleeve is configured such that in the engaged position of the coupling sleeve the elastomeric, rubber like element has a C-shaped deformation, and in the disengaged position of the coupling sleeve the elastomeric, rubber like element has an S-shaped deformation. the coupling sleeve is configured such that in the engaged position of the coupling sleeve the elastomeric, rubber like element has a C-shaped deformation, and in the disengaged position of the coupling sleeve the elastomeric, rubber like element has an S-shaped deformation.
A nonwoven fabric comprising at least one fiber having a first component prepared from at least 75 wt.% of an ethylene/alpha-olefin interpolymer composition, wherein the ethylene/alpha-olefin interpolymer composition has: a density in the range of 0.930 to 0.965 g/cm 3, a melt index in the range of from 10 to 60 g/10 minutes, wherein the 12 is measured according to ASTM D1238, 190C, 2.16 kg a molecular weight distribution, expressed as the ratio of the weight average molecular weight to number average molecular weight (M w /M n) as determined by GPC in the range of from 1.5 to 2.6, a tan delta at 1 radian/second of at least 45, a low temperature peak and a high temperature peak on an improved comonomer composition distribution (ICCD) elution profile by Crystallization Elution Fractionation as defined herein, preferably two distinguishable peaks between 35°C to 110°C, and a full width at half maximum of the high temperature peak is less than 6.0 °C. a density in the range of 0.930 to 0.965 g/cm 3, a melt index in the range of from 10 to 60 g/10 minutes, wherein the 12 is measured according to ASTM D1238, 190C, 2.16 kg a molecular weight distribution, expressed as the ratio of the weight average molecular weight to number average molecular weight (M w /M n) as determined by GPC in the range of from 1.5 to 2.6, a tan delta at 1 radian/second of at least 45, a low temperature peak and a high temperature peak on an improved comonomer composition distribution (ICCD) elution profile by Crystallization Elution Fractionation as defined herein, preferably two distinguishable peaks between 35°C to 110°C, and a full width at half maximum of the high temperature peak is less than 6.0 °C.
Electronic device for an automotive lighting module, the electronic device comprising a flexible printed circuit board with conductive tracks and a conductive anode arranged on the flexible circuit board; a connector; a plurality of first light sources and a plurality of second light sources mounted on said flexible printed circuit board and being in electrical connection with the connector 4 by means of the conductive tracks 3 and the conductive anode; characterised in that a first portion of said conductive anode is connecting the connector with the first light sources; a second portion of said conductive anode is connecting the connector with the second light sources; wherein the first portion of the conductive anode and the second portion of the conductive anode are directly connected to the connector. a flexible printed circuit board with conductive tracks and a conductive anode arranged on the flexible circuit board; a connector; a plurality of first light sources and a plurality of second light sources mounted on said flexible printed circuit board and being in electrical connection with the connector 4 by means of the conductive tracks 3 and the conductive anode; characterised in that a first portion of said conductive anode is connecting the connector with the first light sources; a second portion of said conductive anode is connecting the connector with the second light sources; wherein the first portion of the conductive anode and the second portion of the conductive anode are directly connected to the connector.
A plenoptic camera comprising a color filter array positioned on a sensor array (104, 600) comprising an array of pixels, the plenoptic camera being characterized in that said color filter array comprises a set of unit elements, each unit element covering M × M pixels of said sensor array (104, 600), with M an integer such that M ≥ 2, said plenoptic camera further comprising a set of micro-lenses, each micro-lens delivering a micro-lens image (202, 601) on said sensor array (104, 600) with a diameter equal to p = k × M pixels, with k being an integer greater than or equal to two, wherein said set of unit elements comprises an initialization unit element being associated with a matrix c m, n 0 ≤ m < M 0 ≤ n < M, where each coefficient c m,n is associated with a color, and in that the other unit elements are associated with matrixes with coefficients set to c ( x + i)mod M,( y + j)mod M, for corresponding pixel ( x, y, i, j) on said sensor array (104, 600), where indexes x, y relate to indexation of a pixel in said sensor array (104, 600), and indexes i,j relate to indexation of a micro-lens in said set of micro-lenses.
Wiper blade device, in particular wiper blade device for a windscreen wiper, having at least one wiper blade (10a; 10b), having at least one adapter unit (12; 12b) for coupling the wiper blade (10a; 10b) to a wiper arm (14a; 14b) of a wiper (16a; 16b), in particular windscreen wiper, having at least one spray unit (18a; 18b) which is integrated in the wiper blade (10a; 10b), and having at least one washing water distributor unit (20a; 20b; 20b') for supplying washing water to the spray unit (18a; 18b), in particular to nozzle elements (22a; 22b) of the spray unit (18a; 18b) which are arranged at least substantially parallel with a main extent direction (54a, 54b) of the wiper blade (10a; 10b) along the wiper blade (10a; 10b), wherein the washing water distributor unit (20a; 20b; 20b') has at least one channel coupling element (24a; 24b; 24b') for a preferably fluid-tight coupling of at least one component of the washing water distributor unit (20a; 20b; 20b') to a washing water channel (26a; 26b; 26b') of the spray unit (18a; 18b), which coupling is provided in particular for a passage of a fluid, and wherein the washing water distributor unit (20a; 20b; 20b') has at least one adapter coupling element (28a; 28b) for a preferably fluid-tight coupling of at least one additional component of the washing water distributor unit (20a; 20b; 20b') to an additional washing water channel (30a; 30b) of the adapter unit (12a; 12b), which coupling is provided in particular for a passage of a fluid, wherein the additional washing water channel (30a; 30b) is at least partially formed by the adapter unit (12a; 12b), wherein the washing water distributor unit (20a; 20b; 20b') has a washing water supply line channel (32a; 32b) which is formed integrally with a wiper arm adapter (38a; 38b) of the adapter unit (12a; 12b), and which is arranged in an angled manner with respect to the additional washing water channel (30a; 30b) of the adapter unit (12a; 12b), wherein the channel coupling element (24b; 24b') and/or an additional channel coupling element (40b, 40b') of the washing water distributor unit (20b; 20b') have an angled profile, characterized in that the adapter coupling element (28a; 28b) has a locking device (86a; 86b) for positioning the adapter coupling element (28a; 28b) relative to the adapter unit (12a; 12b).
A vinylidene fluoride-based polymer composition comprising a vinylidene fluoride-based polymer and a surfactant, the surfactant containing a segment of polyethylene glycol and a segment of polypropylene glycol, a content of the surfactant being 10 ppm or greater and less than 100 ppm in terms of mass relative to a solid content of the vinylidene fluoride-based polymer composition, and an HLB value of the surfactant being 10 or greater, as calculated by the Griffin's method, the vinylidene fluoride-based polymer composition containing no fluorinated surfactant. the surfactant containing a segment of polyethylene glycol and a segment of polypropylene glycol, a content of the surfactant being 10 ppm or greater and less than 100 ppm in terms of mass relative to a solid content of the vinylidene fluoride-based polymer composition, and an HLB value of the surfactant being 10 or greater, as calculated by the Griffin's method, the vinylidene fluoride-based polymer composition containing no fluorinated surfactant.
A detector for detecting sulfur components characterized in that the detector comprises a storage portion for storing SO x and NO x from the exhaust gas passing through an exhaust passage, the storage portion comprising a NO x storage material and a noble metal catalyst such that as an amount of stored SO x increases in the storage portion, an amount of stored NO x in the storage portion decreases, and further configured such that stored NO x is released from the storage portion without releasing stored SOx when the storage portion is heated to a predetermined temperature, and a temperature sensor configured to measure a temperature of said storage portion, wherein the detector is configured to estimate said amount of stored SO x based on a relationship between a heating pattern of said storage portion and a change in temperature of said storage portion measured by said temperature sensor after said storage portion reaches said predetermined temperature, and to detect an integrated amount of SO x passing through said exhaust passage during a given period or a value on the basis of said integrated amount, wherein said heating pattern elevates the temperature of said storage portion by a predetermined amount per unit time when NO x is not stored, and wherein said storage portion has a property whereby the temperature of said storage portion, elevates by an amount lower than said predetermined amount per unit time by said heating pattern while NO x is stored, such that an amount of NO x released from said storage portion when an upper limit amount of NO x is stored is estimated based on NO x release during a period in which the temperature of said storage portion elevates by the amount lower than said predetermined amount per unit time, and said amount of stored SO x is estimated based on the amount of the released NO x.
A method in a target Mobility Management Entity, MME, or a target Serving General Packet Radio Service Support, SGSN, node for handling a mobility procedure or session procedure, the target MME node or the target SGSN node being comprised in a radio network, the method comprising: receiving, from a source MME node or a source SGSN node, a communication message comprising a QoS parameter associated with a source serving network system, characterized in that the communication message further comprising a Packet Data Network Gateway, PGW, or a Policy and Charging Rules Function, PCRF, capability information element, the capability information element indicating if a PGW and/or PCRF node supports maximum allowed QoS handling; comparing a maximum allowed QoS of a target serving network, the QoS parameter associated with the source serving network and the capability information element; and providing instructions for the mobility procedure or session procedure for each Packet Data Network, PDN, connection associated with a requesting user equipment, the instructions being based on the comparing. receiving, from a source MME node or a source SGSN node, a communication message comprising a QoS parameter associated with a source serving network system, characterized in that the communication message further comprising a Packet Data Network Gateway, PGW, or a Policy and Charging Rules Function, PCRF, capability information element, the capability information element indicating if a PGW and/or PCRF node supports maximum allowed QoS handling; comparing a maximum allowed QoS of a target serving network, the QoS parameter associated with the source serving network and the capability information element; and providing instructions for the mobility procedure or session procedure for each Packet Data Network, PDN, connection associated with a requesting user equipment, the instructions being based on the comparing.
A foldable label (10, 500, 600, 700, 800) comprising: a core (20, 114, 520, 620, 720) comprising a first ferrite layer, a second ferrite layer, and a spacer layer disposed between the first ferrite layer and the second ferrite layer; a capacitor (40, 112, 540, 640, 740) comprising a dielectric layer (24, 524, 624, 724) disposed between a top plate (543, 643, 743) and a bottom plate (544, 644, 744); and a coil (30, 120, 530, 630, 730) wrapped around the core (20, 114, 520, 620, 720) and connected to the capacitor (40, 112, 540, 640, 740) to form a resonant circuit; wherein the coil (30, 120, 530, 630, 730) is formed of angled traces wrapped around the core (20, 114, 520, 620, 720) to form turns (31, 531, 631, 731) such that each turn (31, 531, 631, 731) is electrically and physically connected in series to an adjacent angled turn to form a helical structure of the coil (30, 120, 530, 630, 730), wherein the turns are formed by etching conductive material from a planar sheet of the conductive material into said plurality of angled traces. a core (20, 114, 520, 620, 720) comprising a first ferrite layer, a second ferrite layer, and a spacer layer disposed between the first ferrite layer and the second ferrite layer; a capacitor (40, 112, 540, 640, 740) comprising a dielectric layer (24, 524, 624, 724) disposed between a top plate (543, 643, 743) and a bottom plate (544, 644, 744); and a coil (30, 120, 530, 630, 730) wrapped around the core (20, 114, 520, 620, 720) and connected to the capacitor (40, 112, 540, 640, 740) to form a resonant circuit; wherein the coil (30, 120, 530, 630, 730) is formed of angled traces wrapped around the core (20, 114, 520, 620, 720) to form turns (31, 531, 631, 731) such that each turn (31, 531, 631, 731) is electrically and physically connected in series to an adjacent angled turn to form a helical structure of the coil (30, 120, 530, 630, 730), wherein the turns are formed by etching conductive material from a planar sheet of the conductive material into said plurality of angled traces.
A camera system, comprising: a camera base including base vent slots arranged along a perimeter of the camera base; and a rotating camera pan bearing attached over the camera base, wherein the rotating camera pan bearing includes at least one pan bearing vent slot that aligns with different ones of the base vent slots during rotation relative to the camera base. a camera base including base vent slots arranged along a perimeter of the camera base; and a rotating camera pan bearing attached over the camera base, wherein the rotating camera pan bearing includes at least one pan bearing vent slot that aligns with different ones of the base vent slots during rotation relative to the camera base.