mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a verification path for each leaf l k of a tree, the method being performed by a tree manager processor, the method comprising: acquiring leaf values x k of leaves l k, for k = 1,..., m of a tree, wherein the leaves represent at least one of: distinct hash digests, documents, log files, distinct one-time signing keys, authentication keys, default values, or any combination thereof; determining a root value RV of the leaves l k; and determining a verification path VP k from a leaf l k to the root value RV for each of the leaves by determining (S106a) auxiliary parameters y 1,..., y m by applying a collision resistant function ξ() to the leaves l 1,..., l m, and by determining (S106b) a result from applying a combining function F m to the auxiliary parameters y 1,..., y m, wherein the combining function F m is provided as a family of functions F m ( y 1,..., y m), where the length of the output is independent of the number of inputs m such that the size of each verification path is independent from the number of leaves m, where each verification path comprises a partial result and a function that enables determination of said root value RV from its leaf value and said partial result, and wherein said partial result for the verification path for leaf l k is determined as a one-way function depending only on other leaves l j # l k such that the verification path for leaf l k prohibits re-computation of any other leaf value x j from said partial result. acquiring leaf values x k of leaves l k, for k = 1,..., m of a tree, wherein the leaves represent at least one of: distinct hash digests, documents, log files, distinct one-time signing keys, authentication keys, default values, or any combination thereof; determining a root value RV of the leaves l k; and determining a verification path VP k from a leaf l k to the root value RV for each of the leaves by determining (S106a) auxiliary parameters y 1,..., y m by applying a collision resistant function ξ() to the leaves l 1,..., l m, and by determining (S106b) a result from applying a combining function F m to the auxiliary parameters y 1,..., y m, wherein the combining function F m is provided as a family of functions F m ( y 1,..., y m), where the length of the output is independent of the number of inputs m such that the size of each verification path is independent from the number of leaves m, where each verification path comprises a partial result and a function that enables determination of said root value RV from its leaf value and said partial result, and wherein said partial result for the verification path for leaf l k is determined as a one-way function depending only on other leaves l j # l k such that the verification path for leaf l k prohibits re-computation of any other leaf value x j from said partial result.
A battery module comprising: a plurality of battery cells, at least one barrier (150, 250, 350, 450, 550) being at least partly arranged between adjacent battery cells of the plurality of battery cells; wherein the at least one barrier (150, 250, 350, 450, 550) comprises a first lateral member (151, 251, 351, 451, 551) arranged at a side surface of two adjacent battery cells, a second lateral member (152, 252, 352, 452, 552) arranged at an opposite side surface of the battery cells and a plurality of connection members (153, 253, 353, 453, 553) being separated from one another, each connection member (153, 253, 353, 453, 553) extending from the first lateral member (151, 251, 351, 451, 551) to the second lateral member (152, 252, 352, 452, 552) and extending between adjacent battery cells, wherein the first lateral member (151, 251, 351, 451, 551) and the second lateral member (152, 252, 352, 452, 552) each comprises at least one opening (151b, 152b, 251b, 252b, 351b, 352b, 451b, 452b, 551b, 552b), wherein the thickness of each of the connection members (153, 253, 353, 453, 553) varies in a lengthwise direction wherein the lengthwise direction of the connection members is a direction extending from the first lateral member to the second lateral member characterized in that the connection members (153, 253, 353, 453, 553) comprises a plurality of bridges and a plurality of protrusions (154, 254, 354, 454, 554) being formed to project from the bridges in a widthwise direction wherein the protrusions (154, 254, 354, 454, 554) and bridges of the connection members (153, 253, 353, 453, 553) are formed as a linear chain. a plurality of battery cells, at least one barrier (150, 250, 350, 450, 550) being at least partly arranged between adjacent battery cells of the plurality of battery cells; wherein the at least one barrier (150, 250, 350, 450, 550) comprises a first lateral member (151, 251, 351, 451, 551) arranged at a side surface of two adjacent battery cells, a second lateral member (152, 252, 352, 452, 552) arranged at an opposite side surface of the battery cells and a plurality of connection members (153, 253, 353, 453, 553) being separated from one another, each connection member (153, 253, 353, 453, 553) extending from the first lateral member (151, 251, 351, 451, 551) to the second lateral member (152, 252, 352, 452, 552) and extending between adjacent battery cells, wherein the first lateral member (151, 251, 351, 451, 551) and the second lateral member (152, 252, 352, 452, 552) each comprises at least one opening (151b, 152b, 251b, 252b, 351b, 352b, 451b, 452b, 551b, 552b),
An imaging apparatus comprising: a wiring board; an imaging unit that includes a lens module and an imaging element implemented on the wiring board; a frame-like housing that accommodates the imaging unit and that has an opening formed thereon in an optical axis direction of the imaging unit; a top cover located on the housing; a light source that emits light to be sent to outside via the top cover; a light guide body that guides the light emitted from the light source; and a light blocking body that blocks light around the imaging unit, wherein the imaging unit, the light guide body, and the light blocking body are disposed with a gap between the top cover, the housing includes a top-cover supporting unit, at least a portion of which supports the top cover at a periphery of the opening, characterized by a light-guide-body supporting unit that is located on a surface opposite to a surface on which the top cover is located and that supports the light guide body, and the light guide body includes a light-blocking-body supporting unit that is located on a surface opposite to the surface on which the top cover is located and that supports the light blocking body. a wiring board; an imaging unit that includes a lens module and an imaging element implemented on the wiring board; a frame-like housing that accommodates the imaging unit and that has an opening formed thereon in an optical axis direction of the imaging unit; a top cover located on the housing; a light source that emits light to be sent to outside via the top cover; a light guide body that guides the light emitted from the light source; and a light blocking body that blocks light around the imaging unit, wherein the imaging unit, the light guide body, and the light blocking body are disposed with a gap between the top cover, the housing includes a top-cover supporting unit, at least a portion of which supports the top cover at a periphery of the opening, characterized by a light-guide-body supporting unit that is located on a surface opposite to a surface on which the top cover is located and that supports the light guide body, and the light guide body includes a light-blocking-body supporting unit that is located on a surface opposite to the surface on which the top cover is located and that supports the light blocking body.
A method of training a neural network configured for providing a further processing location, wherein the method comprises: providing a labeled medical image, wherein the labeled medical image comprises multiple labels each indicating a truth processing location (102, 104, 106); inputting the labeled medical image into the neural network to obtain one trial processing location, wherein the one trial processing location consists of a most likely trial processing location; determine the closest truth processing location for the most likely trial processing location, wherein the closest truth processing location is the closest of the truth processing locations to the output of the neural network; calculating an error vector using the closest truth processing location and the most likely trial processing location, wherein the error vector is a position change between the closest truth processing location and the most likely trial processing location, wherein the error vector is calculated only using the closest truth processing location and the most likely trial processing location; training the neural network using the error vector; and wherein the method is performed repeatedly using multiple labeled medical images. providing a labeled medical image, wherein the labeled medical image comprises multiple labels each indicating a truth processing location (102, 104, 106); inputting the labeled medical image into the neural network to obtain one trial processing location, wherein the one trial processing location consists of a most likely trial processing location; determine the closest truth processing location for the most likely trial processing location, wherein the closest truth processing location is the closest of the truth processing locations to the output of the neural network; calculating an error vector using the closest truth processing location and the most likely trial processing location, wherein the error vector is a position change between the closest truth processing location and the most likely trial processing location, wherein the error vector is calculated only using the closest truth processing location and the most likely trial processing location; training the neural network using the error vector; and wherein the method is performed repeatedly using multiple labeled medical images.
An ear gear (100; 200) comprising a pair of earpieces (102, 103; 203) being attached to a respective headband end region (106, 107; 206, 207) of an interconnecting headband (108; 208), whereby each earpiece (102, 103; 203) is adjustably associated with the headband (108; 208) for adjustment of the position of the earpieces (102, 103; 203) relative to the headband (108; 208), the ear gear (100; 200) further comprising: - at least two extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) provided at each of the headband end regions (106, 107; 206, 207) of the headband, - arm members (110, 111; 211) that at respective ends (110A, 111A; 211A) are attached to a respective earpiece (102, 103; 203), and - end caps (110E, 111E; 211E) provided at respective headband end regions (106, 107; 206, 207), wherein at least one of the extended legs is rotatably arranged with each end cap of said end caps (110E, 111E; 211E), such that the end caps can rotate relative to the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B), and wherein each end cap (110E, 111E) has recesses and each one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is inserted in respective recesses, and wherein the ear gear (100; 200) is characterized in that - at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is displaceable in a longitudinal direction extending along the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) at each end cap (110E, 111E; 211E), such that the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is moveable back and forth in said longitudinal direction within the respective recess of each end cap (110E, 111E; 211E). - at least two extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) provided at each of the headband end regions (106, 107; 206, 207) of the headband, - arm members (110, 111; 211) that at respective ends (110A, 111A; 211A) are attached to a respective earpiece (102, 103; 203), and - end caps (110E, 111E; 211E) provided at respective headband end regions (106, 107; 206, 207), wherein at least one of the extended legs is rotatably arranged with each end cap of said end caps (110E, 111E; 211E), such that the end caps can rotate relative to the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B), and wherein each end cap (110E, 111E) has recesses and each one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is inserted in respective recesses, and wherein the ear gear (100; 200) is characterized in that - at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is displaceable in a longitudinal direction extending along the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) at each end cap (110E, 111E; 211E), such that the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is moveable back and forth in said longitudinal direction within the respective recess of each end cap (110E, 111E; 211E).
An apparatus comprising: a plurality of queues (110, 510) configured to cache a plurality of packets that correspond to a plurality of sessions; wherein the apparatus further comprises: a scheduler (120, 520) configured to schedule the packets from the different queues for forwarding based on a finish time for each packet at the egress of each corresponding queue, and an egress link (130, 530) coupled to the scheduler and configured to forward the scheduled packets from all the queues at a total bandwidth that is shared among the queues, wherein the calculation of the finish time is dynamic based on the amount of bandwidth allocated for the corresponding queue, wherein the calculation of the finish time is only for the packets at the head of the queues, and wherein only the packets at the head of the queues are scheduled, and wherein the queues have assigned corresponding weights for sharing the total bandwidth. a plurality of queues (110, 510) configured to cache a plurality of packets that correspond to a plurality of sessions; wherein the apparatus further comprises: a scheduler (120, 520) configured to schedule the packets from the different queues for forwarding based on a finish time for each packet at the egress of each corresponding queue, and an egress link (130, 530) coupled to the scheduler and configured to forward the scheduled packets from all the queues at a total bandwidth that is shared among the queues, a scheduler (120, 520) configured to schedule the packets from the different queues for forwarding based on a finish time for each packet at the egress of each corresponding queue, and an egress link (130, 530) coupled to the scheduler and configured to forward the scheduled packets from all the queues at a total bandwidth that is shared among the queues, wherein the calculation of the finish time is dynamic based on the amount of bandwidth allocated for the corresponding queue, wherein the calculation of the finish time is only for the packets at the head of the queues, and wherein only the packets at the head of the queues are scheduled, and wherein the queues have assigned corresponding weights for sharing the total bandwidth.
A method in a base station of a mobile communication network for supporting continuity of a Multimedia Broadcast Multicast Service, MBMS, for a terminal, the method comprising the steps: the base station receiving, from the terminal, an information element informing the base station of a combination of bands, which the terminal supports for carrier aggregation, wherein the terminal supports MBMS reception on any carrier configurable as a serving cell for the terminal according to the information element; the base station deriving, from the received information element, MBMS reception capabilities of the terminal; and the base station determining one or more carriers configurable by the base station as serving cell of the terminal, such that the terminal is enabled to receive at least one MBMS. the base station receiving, from the terminal, an information element informing the base station of a combination of bands, which the terminal supports for carrier aggregation, wherein the terminal supports MBMS reception on any carrier configurable as a serving cell for the terminal according to the information element; the base station deriving, from the received information element, MBMS reception capabilities of the terminal; and the base station determining one or more carriers configurable by the base station as serving cell of the terminal, such that the terminal is enabled to receive at least one MBMS.
Process for the production of a compound comprising the following steps: - A step A during which an aqueous solution containing together, aluminium nitrate, zinc nitrate and copper nitrate is prepared by mixing said nitrate salts in the appropriate proportions, with water; - A step B during which, said solution obtained at step A is mixed with an aqueous solution of hydrogenocarbonic acid sodium salt at 60°C, the pH being maintained between 8 and 10, preferably around 9, to produce a precipitate; - A step C during which, said precipitate obtained at step B, is isolated by filtration, washed and then dried to form the expected hydrotalcite-type compound of formula: [Cu x Zn y Al w 2] (2x+2y+3w-2)+ (A 2-) (2x+2y+3w-2)/2, k H 2 O wherein: - (A 2-) represents either a carbonate anion or a silicate anion, - x > 0, - y >0, - w >0, - (x + y) = (1-w), - 1 < [(x+y)/w] < 5, and - 1/99 ≤ x/y ≤ 1/2. - A step F during which the powder of an hydrotalcite-type compound of said formula is calcined at 550°C for 6 hours; - A step G during which the calcined powder obtained at step F is reduced with hydrogen, at a temperature of less than 230°C. - A step A during which an aqueous solution containing together, aluminium nitrate, zinc nitrate and copper nitrate is prepared by mixing said nitrate salts in the appropriate proportions, with water; - A step B during which, said solution obtained at step A is mixed with an aqueous solution of hydrogenocarbonic acid sodium salt at 60°C, the pH being maintained between 8 and 10, preferably around 9, to produce a precipitate; - A step C during which, said precipitate obtained at step B, is isolated by filtration, washed and then dried to form the expected hydrotalcite-type compound of formula: [Cu x Zn y Al w 2] (2x+2y+3w-2)+ (A 2-) (2x+2y+3w-2)/2, k H 2 O wherein: - (A 2-) represents either a carbonate anion or a silicate anion, - x > 0, - y >0, - w >0, - (x + y) = (1-w), - 1 < [(x+y)/w] < 5, and - 1/99 ≤ x/y ≤ 1/2. - (A 2-) represents either a carbonate anion or a silicate anion, - x > 0, - y >0, - w >0, - (x + y) = (1-w), - 1 < [(x+y)/w] < 5, and - 1/99 ≤ x/y ≤ 1/2. - A step F during which the powder of an hydrotalcite-type compound of said formula is calcined at 550°C for 6 hours; - A step G during which the calcined powder obtained at step F is reduced with hydrogen, at a temperature of less than 230°C.
A fire extinguishing apparatus comprising: a sand container in which fire extinguishing sand is housed; a nitrogen gas cylinder; a decompression valve connected with the nitrogen gas cylinder; and a delivery tube delivering the fire extinguishing sand as well as nitrogen gas taken out via a decompression valve from the nitrogen gas cylinder; wherein an ejector to which nitrogen gas taken out via the decompression valve from the nitrogen gas cylinder is supplied, wherein the ejector is connected to a suction tube sucking the fire extinguishing sand from the sand container with use of negative pressure generated due to a nitrogen gas stream, wherein the suction tube is connected to a base portion of the ejector and a tip portion of the suction tube is inserted into the sand container via a lid plate, a nitrogen enclosing tube further reducing pressure of the nitrogen gas taken out via the decompression valve from the nitrogen gas cylinder and supplying the nitrogen gas into the inside of the sand container, and wherein the sand container has the lid plate thereof provided with a sand inlet, the lid and the sand inlet being airtight lids with packing, and the sand inlet enabling opening and closing during fire extinguishing work. a sand container in which fire extinguishing sand is housed; a nitrogen gas cylinder; a decompression valve connected with the nitrogen gas cylinder; and a delivery tube delivering the fire extinguishing sand as well as nitrogen gas taken out via a decompression valve from the nitrogen gas cylinder; wherein an ejector to which nitrogen gas taken out via the decompression valve from the nitrogen gas cylinder is supplied, wherein the ejector is connected to a suction tube sucking the fire extinguishing sand from the sand container with use of negative pressure generated due to a nitrogen gas stream, wherein the suction tube is connected to a base portion of the ejector and a tip portion of the suction tube is inserted into the sand container via a lid plate, a nitrogen enclosing tube further reducing pressure of the nitrogen gas taken out via the decompression valve from the nitrogen gas cylinder and supplying the nitrogen gas into the inside of the sand container, and wherein the sand container has the lid plate thereof provided with a sand inlet, the lid and the sand inlet being airtight lids with packing, and the sand inlet enabling opening and closing during fire extinguishing work.
Supporting device that is suitable to support an abrasive element and associable with an orbital or random orbital sander machine, including: - a supporting body comprising an external face and a central part provided with a series of first through holes; - a connecting element fixed to said supporting body and arranged to support said abrasive element, said connecting element comprising a central portion provided with a series of second through holes facing said series of first through holes; - a closing element; characterized in that said supporting body comprises an annular cavity made in a peripheral part of said supporting body around said central part and provided with a series of third through holes, wherein the closing element is coupleable to said supporting body so as to close said annular cavity and form an inner annular chamber, said closing element being provided with a series of fourth through holes facing a series of fifth through holes made on a peripheral annular portion of said connecting element, said first through holes and said third through holes of said supporting body coming out at a coupling portion of said external face that is suitable to engage an air and sanding dust suction system of said sander machine. - a supporting body comprising an external face and a central part provided with a series of first through holes; - a connecting element fixed to said supporting body and arranged to support said abrasive element, said connecting element comprising a central portion provided with a series of second through holes facing said series of first through holes; - a closing element;