mhurhangee/ep-ind-claims huggingface dataset:
Unit for monitoring the presence of chips (C1-C6) between a seat of a tool holder and a support of a spindle of a machine tool; said monitoring unit comprising: - means for obtaining an imbalance (B(Ac, θc)) as a function of: - an amplitude (Ac) corresponding to a maximum of a first signal (Sa) representing the centrifugal forces applied to said seat and/or said support; and - a phase (θc) obtained as a function of a phase-shift between said first signal (Sa) and a second signal (Sp) representing a position of a drive shaft driving said spindle; and - means for determining the presence of chips (C1-C6) as a function of an amplitude (Ar) and a reference phase (θr); characterized in that said determination means are configured to detect the presence of chips (C1-C6) when the norm of the difference between said imbalance (B(Ac, θc)) and a reference imbalance (B(Ar, θr)) is greater than a threshold value, said reference imbalance (B(Ar, θr)) being obtained as a function of said amplitude (Ar) and said reference phase (θr). - means for obtaining an imbalance (B(Ac, θc)) as a function of: - an amplitude (Ac) corresponding to a maximum of a first signal (Sa) representing the centrifugal forces applied to said seat and/or said support; and - a phase (θc) obtained as a function of a phase-shift between said first signal (Sa) and a second signal (Sp) representing a position of a drive shaft driving said spindle; and - an amplitude (Ac) corresponding to a maximum of a first signal (Sa) representing the centrifugal forces applied to said seat and/or said support; and - a phase (θc) obtained as a function of a phase-shift between said first signal (Sa) and a second signal (Sp) representing a position of a drive shaft driving said spindle; and - means for determining the presence of chips (C1-C6) as a function of an amplitude (Ar) and a reference phase (θr);
A system for detecting an open circuit in a sensor measurement system, the system comprising: a sensor (22a - 22n) having a direct current output a wiring harness (27a - 27n) operably connected to the sensor and configured to transmit a sensor signal (26a - 26n); a controller, the controller operably connected to the wiring harness (27a - 27n), the controller configured execute a method comprising: receiving a sensor signal from the sensor (22a - 22n); AC coupling an AC signal with the sensor signal to form a coupled signal; measuring the coupled signal; determining if an open circuit is present based on the coupled signal; and characterizing at least one of the sensor (22a - 22n) and the wiring harness (27a - 27n) as failed if the open circuit is detected. a sensor (22a - 22n) having a direct current output a wiring harness (27a - 27n) operably connected to the sensor and configured to transmit a sensor signal (26a - 26n); a controller, the controller operably connected to the wiring harness (27a - 27n), the controller configured execute a method comprising: receiving a sensor signal from the sensor (22a - 22n); AC coupling an AC signal with the sensor signal to form a coupled signal; measuring the coupled signal; determining if an open circuit is present based on the coupled signal; and characterizing at least one of the sensor (22a - 22n) and the wiring harness (27a - 27n) as failed if the open circuit is detected. receiving a sensor signal from the sensor (22a - 22n); AC coupling an AC signal with the sensor signal to form a coupled signal; measuring the coupled signal; determining if an open circuit is present based on the coupled signal; and characterizing at least one of the sensor (22a - 22n) and the wiring harness (27a - 27n) as failed if the open circuit is detected.
A compound of formula or a pharmaceutically acceptable salt, stereoisomer or solvate thereof wherein R 1 is selected from the group consisting of -H, -OR 4, -SR 4, -NR 4 R 5; wherein R 4 and R 5 are independently selected from the group consisting of -H, -CH 3 and -CH 2 CH 3; one Z is N and the other is -C-R 2; and R 2 and R 3 are independently selected from the group consisting of H, alkyl and aryl, for use in the prevention and/or treatment of a pathology associated with proinflammatory conditions, a disease associated with oxidative stress or production of reactive oxygen species or a skin pigmentation disorder, wherein the disease related to a proinflammatory condition is selected from the group consisting of psoriasis, eczema, vitiligo, impetigo, acne, rosacea, urticaria, melasma or alopecia and wherein the disease associated with oxidative stress or production of reactive oxygen species is selected from the group consisting of ischemia reperfusion injury, age-related macular degeneration, retinal detachment, hypertensive retinal disease, uveitis, degenerative retinal damage, cataractogenesis, retinopathy, Meniere's disease, drug-induced toxicity, Alzheimer's disease, Parkinson's disease, Huntington's disease and tardive dyskinesia, and wherein the skin pigmentation disorder is selected from the group consisting of melasma, drug-induced hyperpigmentation, acanthosis nigricans, lentigines, Addison's disease and hemochromatosis.
A method, comprising: a) fragmenting data (204, 304) of an object (104, 905) for storage into an object storage system (100, 1000, 1050) into multiple data fragments (105, 205, 305, 405, 502) and performing a first error correction encoding process on the data (204, 304) to generate one or more parity fragments (206, 406, 906) for the object (104, 905); b) sending the multiple data fragments (105, 205, 305, 405, 502) and the one or more parity fragments (206, 406, 906) over a network (102, 202, 302, 402) to different storage servers of the object storage system (100, 1000, 1050); c) performing the following at each of the different storage servers: i) incorporating the received one of the multiple data fragments (105, 205, 305, 405, 502) and one or more parity fragments (206, 406, 906) into an extent (511, 512, 811) comprising multiple fragments of other objects (104, 905); ii) performing a second error correction encoding process on multiple extents (511, 512, 811) including the extent (511, 512, 811) to generate parity information (514, 515, 820) for the multiple extents (511, 512, 811); and, iii) storing the multiple extents (511, 512, 811) and the parity information (514, 515, 820). a) fragmenting data (204, 304) of an object (104, 905) for storage into an object storage system (100, 1000, 1050) into multiple data fragments (105, 205, 305, 405, 502) and performing a first error correction encoding process on the data (204, 304) to generate one or more parity fragments (206, 406, 906) for the object (104, 905); b) sending the multiple data fragments (105, 205, 305, 405, 502) and the one or more parity fragments (206, 406, 906) over a network (102, 202, 302, 402) to different storage servers of the object storage system (100, 1000, 1050); c) performing the following at each of the different storage servers: i) incorporating the received one of the multiple data fragments (105, 205, 305, 405, 502) and one or more parity fragments (206, 406, 906) into an extent (511, 512, 811) comprising multiple fragments of other objects (104, 905); ii) performing a second error correction encoding process on multiple extents (511, 512, 811) including the extent (511, 512, 811) to generate parity information (514, 515, 820) for the multiple extents (511, 512, 811); and, iii) storing the multiple extents (511, 512, 811) and the parity information (514, 515, 820). i) incorporating the received one of the multiple data fragments (105, 205, 305, 405, 502) and one or more parity fragments (206, 406, 906) into an extent (511, 512, 811) comprising multiple fragments of other objects (104, 905); ii) performing a second error correction encoding process on multiple extents (511, 512, 811) including the extent (511, 512, 811) to generate parity information (514, 515, 820) for the multiple extents (511, 512, 811); and, iii) storing the multiple extents (511, 512, 811) and the parity information (514, 515, 820).
Domestic appliance with an open air duct, wherein a flow cross-section adjusting facility for adjusting a flow cross-section of the air duct is arranged in the air duct and the flow cross-section adjusting facility has rotatably mounted blades for noise dampening purposes, and the domestic appliance has at least one fan (13, 14) arranged in the air duct for moving air, in particular cooling air, relative to the heat exchanger or to the compressor through the air duct, characterised in that the air duct and the flow cross-section adjusting facility are arranged in a cooling air inflow region from the outside through an air intake opening relative to the heat exchanger or the compressor of the domestic appliance.
A lighting assembly, comprising: a housing manufactured by extrusion from at least one flexible material and comprising a first housing wall, a second housing wall, a third housing wall, a first flexible hinge and a second flexible hinge, the first housing wall being pivotably connected to the second housing wall by means of the first flexible hinge, and the second housing wall being pivotably connected to the third housing wall by means of the second flexible hinge, and both of the first flexible hinge and the second flexible hinge extending in a longitudinal direction, and the first, second, and third housing walls (21, 22, 23) are substantially planar walls; and a lighting element located inside the housing, and arranged to emit light out from the housing, wherein the housing comprises locking means for releasably locking a free edge of the first housing wall to a free edge of the third housing wall to arrange the housing in an operating position, the locking means comprising a first locking member formed in the first housing wall, and a second locking member formed in the third housing wall and arranged to cooperate with the first locking member, and the housing is manufactured in one extrusion process, the material of the third housing wall is translucent, and the lighting element is arranged to emit light out from the housing through the third housing wall. a housing manufactured by extrusion from at least one flexible material and comprising a first housing wall, a second housing wall, a third housing wall, a first flexible hinge and a second flexible hinge, the first housing wall being pivotably connected to the second housing wall by means of the first flexible hinge, and the second housing wall being pivotably connected to the third housing wall by means of the second flexible hinge, and both of the first flexible hinge and the second flexible hinge extending in a longitudinal direction, and the first, second, and third housing walls (21, 22, 23) are substantially planar walls; and a lighting element located inside the housing, and arranged to emit light out from the housing, wherein the housing comprises locking means for releasably locking a free edge of the first housing wall to a free edge of the third housing wall to arrange the housing in an operating position, the locking means comprising a first locking member formed in the first housing wall, and a second locking member formed in the third housing wall and arranged to cooperate with the first locking member, and the housing is manufactured in one extrusion process, the material of the third housing wall is translucent, and the lighting element is arranged to emit light out from the housing through the third housing wall.
A message transmission method for a cluster file system, wherein the cluster file system comprises a first host, a second host, a message network link, and a data storage medium, the message network link is used for message transmission between the first host and the second host, the data storage medium is configured to store file information of the cluster file system, and the method comprises: determining, by the first host, that the message network link is faulty, and switching a message transmission channel from the message network link to a storage channel, wherein the storage channel is used to connect the first host and the data storage medium, and connect the second host and the data storage medium, so that the first host and the second host perform message transmission by using the data storage medium; generating, by the first host, a first message to be sent to the second host, and recording the first message in a first location area of the data storage medium, wherein the first location area is used by the second host to access and read the first message; accessing, by the first host, a second location area of the data storage medium, and reading a second message that is recorded by the second host in the second location area; and monitoring, by the first host, the message network link, and after determining that the message network link recovers to normal, switching the message transmission channel from the storage channel to the message network link, wherein, before exchanging a message by using the message network link again, the first host and the second host query whether there is an unread message in the first and second location area of the storage medium. determining, by the first host, that the message network link is faulty, and switching a message transmission channel from the message network link to a storage channel, wherein the storage channel is used to connect the first host and the data storage medium, and connect the second host and the data storage medium, so that the first host and the second host perform message transmission by using the data storage medium; generating, by the first host, a first message to be sent to the second host, and recording the first message in a first location area of the data storage medium, wherein the first location area is used by the second host to access and read the first message; accessing, by the first host, a second location area of the data storage medium, and reading a second message that is recorded by the second host in the second location area; and monitoring, by the first host, the message network link, and after determining that the message network link recovers to normal, switching the message transmission channel from the storage channel to the message network link, wherein, before exchanging a message by using the message network link again, the first host and the second host query whether there is an unread message in the first and second location area of the storage medium.
An insertion system for placement of a medical device (22, 122, 222, 322) proximate to a desired neuro-muscular pathway in living tissue, said insertion system comprising: an outer sheath (16, 116, 216, 316, 416) configured for receiving the medical device; characterized in that said outer sheath has an electrical conductor (20, 120, 210, 420) configured for contacting the living tissue and passing an electric current to the living tissue for stimulating a neuro-muscular pathway for determining the proximity of the outer sheath to the neuro-muscular pathway in order to position said outer sheath near a neuro-muscular pathway so as to facilitate implantation of said medical device proximate to the neuro-muscular pathway. an outer sheath (16, 116, 216, 316, 416) configured for receiving the medical device; characterized in that said outer sheath has an electrical conductor (20, 120, 210, 420) configured for contacting the living tissue and passing an electric current to the living tissue for stimulating a neuro-muscular pathway for determining the proximity of the outer sheath to the neuro-muscular pathway in order to position said outer sheath near a neuro-muscular pathway so as to facilitate implantation of said medical device proximate to the neuro-muscular pathway.
Device (100, 100'), in particular printed item, comprising - a, preferably flexible, carrier, in particular consisting of paper or cardboard, - a number of switches (2; 2a, 2b,...) that are arranged on the carrier and in their respective initial state are interrupted, - a number of NFC chips (3; 3a, 3b,...) each assigned to at least one switch, - an NFC antenna, - wherein the switches (2; 2a, 2b,...) and the NFC chips (3; 3a, 3b,...) assigned to them are connected with one another in series, and the individual series circuits thus produced, each comprising a switch (2; 2a, 2b,...) and the NFC chip (3; 3a, 3b,...) assigned to it, are in each case connected to the NFC antenna, characterised in that - the device comprises a label (5; 5') with a base body in the form of a foil, wherein the label (5; 5') is brought into planar connection with the carrier, - the individual NFC chips (3; 3a, 3b,...) are arranged on the label (5; 5'), - the switches (2; 2a, 2b,...) are arranged on the carrier in a region that is different from the label (5; 5'), - conductor tracks (6, 7) are provided on the carrier, optionally also on the label (5; 5'), for the electrical connection of the switches (2; 2a, 2b,...), the NFC chips (3; 3a, 3b,...) and the NFC antenna, and - contact points (80, 8a, 8b,... 90, 9a, 9b,... 80', 8a', 8b',... 90', 9a', 9b',...) that face one another are provided on the label (5; 5') and on the carrier and make electrically conductive contact between the conductor tracks (6, 7) on the label (5; 5') and on the carrier. - a, preferably flexible, carrier, in particular consisting of paper or cardboard, - a number of switches (2; 2a, 2b,...) that are arranged on the carrier and in their respective initial state are interrupted, - a number of NFC chips (3; 3a, 3b,...) each assigned to at least one switch, - an NFC antenna, - wherein the switches (2; 2a, 2b,...) and the NFC chips (3; 3a, 3b,...) assigned to them are connected with one another in series, and the individual series circuits thus produced, each comprising a switch (2; 2a, 2b,...) and the NFC chip (3; 3a, 3b,...) assigned to it, are in each case connected to the NFC antenna, - the device comprises a label (5; 5') with a base body in the form of a foil, wherein the label (5; 5') is brought into planar connection with the carrier, - the individual NFC chips (3; 3a, 3b,...) are arranged on the label (5; 5'), - the switches (2; 2a, 2b,...) are arranged on the carrier in a region that is different from the label (5; 5'), - conductor tracks (6, 7) are provided on the carrier, optionally also on the label (5; 5'), for the electrical connection of the switches (2; 2a, 2b,...), the NFC chips (3; 3a, 3b,...) and the NFC antenna, and - contact points (80, 8a, 8b,... 90, 9a, 9b,... 80', 8a', 8b',... 90', 9a', 9b',...) that face one another are provided on the label (5; 5') and on the carrier and make electrically conductive contact between the conductor tracks (6, 7) on the label (5; 5') and on the carrier.
An article (10, 80) formed from an oriented polymer composition throughout its entire volume and having length, width, and thickness dimensions (16, 14, 12, 88, 86, 84) in which the width and thickness dimensions (14, 12, 86, 84) are less than the length dimension (16, 88), wherein at least one surface has been machined so that a portion of the article (10, 80) is reduced in at least one of the width or thickness dimension (14, 12, 86, 84) along at least a portion of the length dimension (16, 88) of the article (10, 80) and wherein a density of the article (10, 80) is between 0.5 g/cc and 1.0 g/cc and the shrink ratio is 0.3 or greater and less than 0.8 and wherein a flexural modulus of the article (10, 80) is between 0.50 GPa and 5.5 GPa.
A switching resistor having a low resistance state and a high resistance state, comprising: a substrate having a predetermined surface texture pattern; a dielectric layer disposed between a first electrode layer and a second electrode layer, wherein the first electrode layer is deposited on the substrate, and wherein the dielectric layer is formed of an oxide of silicon; and a textured boundary surface between the first electrode layer and the dielectric layer, wherein the dielectric layer includes column structures extending from the textured boundary surface between the first electrode layer and the dielectric layer towards the second electrode layer, wherein the textured boundary surface is formed as a result of the predetermined surface texture pattern applied to the substrate that underlies the first electrode, and wherein the textured boundary surface is configured to promote the formation of a conductive pathway in the dielectric layer, at an edge of a column structure, between the first electrode layer and the second electrode layer providing for intrinsic bulk resistance switching. a substrate having a predetermined surface texture pattern; a dielectric layer disposed between a first electrode layer and a second electrode layer, wherein the first electrode layer is deposited on the substrate, and wherein the dielectric layer is formed of an oxide of silicon; and a textured boundary surface between the first electrode layer and the dielectric layer, wherein the dielectric layer includes column structures extending from the textured boundary surface between the first electrode layer and the dielectric layer towards the second electrode layer, wherein the textured boundary surface is formed as a result of the predetermined surface texture pattern applied to the substrate that underlies the first electrode, and wherein the textured boundary surface is configured to promote the formation of a conductive pathway in the dielectric layer, at an edge of a column structure, between the first electrode layer and the second electrode layer providing for intrinsic bulk resistance switching.
A combination comprising a therapeutically effective amount of an antibody that binds BCMA and a therapeutically effective amount of an antibody that binds PD1 wherein the antibody that binds BCMA is conjugated to a cytotoxic agent as an immunoconjugate.
A method of assigning cell identifier values for cells of a cell set within a border area in a communication network, where the communication network has at least two managed cell sets and the border area contains cells from at least two cell sets, comprising the steps of: for cell sets in the border area, receiving respective sets of cell identifier values that are available for cells within the border area and that do not conflict with cell identifier values of other cells in the respective cell sets, wherein a cell identifier value is in conflict with cell identifier values of other cells in a cell set if the cell identifier value is the same as the cell identifier value of a neighbouring cell or is the same as the cell identifier value of a cell that is neighbouring the neighbouring cell; for each cell set in the border area, selecting as suitable cell identifier values, cell identifier values that are common to the respective sets of available cell identifier values for the other of the at least two cell sets in the border area; and assigning a set of selected cell identifier values to a respective cell set in the border area by informing a cell identifier manager of the respective cell set in the border area of the selected cell identifier values. for cell sets in the border area, receiving respective sets of cell identifier values that are available for cells within the border area and that do not conflict with cell identifier values of other cells in the respective cell sets, wherein a cell identifier value is in conflict with cell identifier values of other cells in a cell set if the cell identifier value is the same as the cell identifier value of a neighbouring cell or is the same as the cell identifier value of a cell that is neighbouring the neighbouring cell; for each cell set in the border area, selecting as suitable cell identifier values, cell identifier values that are common to the respective sets of available cell identifier values for the other of the at least two cell sets in the border area; and assigning a set of selected cell identifier values to a respective cell set in the border area by informing a cell identifier manager of the respective cell set in the border area of the selected cell identifier values.