mhurhangee/ep-ind-claims huggingface dataset:
A method for updating a firmware image of an embedded device, the method comprising the following steps: - dividing a new firmware image into blocks 1*... n*... N* of size S, whereas n* and N* are natural numbers, and whereas the size S corresponds to a partitioning of the image corresponding to an erasable block of a flash memory, being a multiple of pages, - considering an old firmware image of the embedded device by dividing the old firmware image into blocks 1... m... M of size S, whereas m and M are natural numbers, - a) matching a first block 1* of the new firmware image against the full old firmware image using a binary differential and patching algorithm, like a BSDIFF algorithm by - b) creating a first block patch 1 of the new and old firmware image according to said first block 1* of the new firmware image and the blocks 1 to M of the old firmware image and storing the first block patch in a patch file, wherein - repeating steps a) and b) for matching against all blocks of the old firmware image for which no block patch n has been created yet, whereas n corresponds to the block number m of the old firmware image, and creating block patches 1... n... N until all blocks N* and M are processed, respectively, and whereas - the old binary firmware image of the embedded device is updated on a block-by-block basis, by application of the corresponding block patch 1... n... N, whereas n and N are natural numbers, and whereas a currently processed block patch n is tracked for ensuring that said block patch n is not applied twice to an updated part of the old firmware image. - dividing a new firmware image into blocks 1*... n*... N* of size S, whereas n* and N* are natural numbers, and whereas the size S corresponds to a partitioning of the image corresponding to an erasable block of a flash memory, being a multiple of pages, - considering an old firmware image of the embedded device by dividing the old firmware image into blocks 1... m... M of size S, whereas m and M are natural numbers, - a) matching a first block 1* of the new firmware image against the full old firmware image using a binary differential and patching algorithm, like a BSDIFF algorithm by - b) creating a first block patch 1 of the new and old firmware image according to said first block 1* of the new firmware image and the blocks 1 to M of the old firmware image and storing the first block patch in a patch file, wherein - repeating steps a) and b) for matching against all blocks of the old firmware image for which no block patch n has been created yet, whereas n corresponds to the block number m of the old firmware image, and creating block patches 1... n... N until all blocks N* and M are processed, respectively, and whereas - the old binary firmware image of the embedded device is updated on a block-by-block basis, by application of the corresponding block patch 1... n... N, whereas n and N are natural numbers, and whereas a currently processed block patch n is tracked for ensuring that said block patch n is not applied twice to an updated part of the old firmware image.
A friction performance evaluation method for a rubber composition, characterized by comprising the steps of: calculating a tensile stress or a compressive stress generated in a model, for which an assumed material is a rubber composition, near a projection by simulation when the model slides on a surface having the projection; determining a reference stress (Rs) on the basis of the tensile stress or the compressive stress; obtaining a tensile strain (St) and a compressive strain (Sc) of the rubber composition when the reference stress (Rs) is applied to the rubber composition; and comparing the tensile strain (St) and the compressive strain (Sc); wherein the step includes the steps of: (C-1) subjecting a first test piece whose material is the rubber composition, to a tensile test to measure the tensile strain (St); and (C-2) subjecting a second test piece whose material is the rubber composition, to a compression test to measure the compressive strain (Sc). calculating a tensile stress or a compressive stress generated in a model, for which an assumed material is a rubber composition, near a projection by simulation when the model slides on a surface having the projection; determining a reference stress (Rs) on the basis of the tensile stress or the compressive stress; obtaining a tensile strain (St) and a compressive strain (Sc) of the rubber composition when the reference stress (Rs) is applied to the rubber composition; and comparing the tensile strain (St) and the compressive strain (Sc); (C-1) subjecting a first test piece whose material is the rubber composition, to a tensile test to measure the tensile strain (St); and (C-2) subjecting a second test piece whose material is the rubber composition, to a compression test to measure the compressive strain (Sc).
A process for thickening or dehydrating sludge, comprising at least: a) a step of adding flocculants to the sludge to be treated; b) a step of flocculating by stirring the sludge added to in this way so as to form a mixture of flocs and an aqueous solution; c) a step of mechanical separation of the flocs and the aqueous solution that were formed in the previous step; d) a step of recovering the aqueous solution and the flocs forming a treated sludge; characterized in that: • the flocculants added consist of at least one cationic starch and at least one cationic polyacrylamide; • the cationic starch(es) comprise a fixed nitrogen weight percent of at least 2.5 %; • and the weight ratio w S /(w S +w P) expressed as dry weight is between 0.6 and 0.95. a) a step of adding flocculants to the sludge to be treated; b) a step of flocculating by stirring the sludge added to in this way so as to form a mixture of flocs and an aqueous solution; c) a step of mechanical separation of the flocs and the aqueous solution that were formed in the previous step; d) a step of recovering the aqueous solution and the flocs forming a treated sludge; • the flocculants added consist of at least one cationic starch and at least one cationic polyacrylamide; • the cationic starch(es) comprise a fixed nitrogen weight percent of at least 2.5 %; • and the weight ratio w S /(w S +w P) expressed as dry weight is between 0.6 and 0.95.
Computing means for a network component of a broadband network, the computing means comprising means for passing equipment status or identification information concerning the network component to a remote network component, characterized in that at least a portion of the operation of the computing means is configurable to simulate user activity at the network component, wherein the user activity comprises: connecting to a broadband network; verifying the identity of the user or the network-component over the broadband network; accessing a service via the broadband network using preset parameters; and amending at least one of the preset parameters and accessing the service via the broadband network using the at least one amended parameter; the computing means further comprising means for accessing a communication service and means for signaling an alarm to a remote network component in the event of detection of a fault condition; and further means for receiving a configuration instruction, wherein at least a portion of the operation of the computing means is configurable by means of a script. connecting to a broadband network; verifying the identity of the user or the network-component over the broadband network; accessing a service via the broadband network using preset parameters; and amending at least one of the preset parameters and accessing the service via the broadband network using the at least one amended parameter;
A method performed by a user equipment, UE, comprising: receiving, from a base station, configuration information on a first control resource set, CORESET, associated with a first transmission configuration indicator, TCI, state configuration and a second CORESET associated with a second TCI state configuration; receiving (2010; 2030) a first physical downlink control channel, PDCCH, in the first CORESET with the first TCI state configuration and a second PDCCH in the second CORESET with the second TCI state configuration, wherein the first PDCCH includes a first downlink control information, DCI, format scheduling a first physical downlink shared channel, PDSCH, and the second PDCCH includes a second DCI format scheduling a second PDSCH; receiving the first PDSCH scheduled by the first DCI format and the second PDSCH scheduled by the second DCI format; and transmitting, to the base station, a physical uplink control channel, PUCCH, including a first hybrid automatic repeat request acknowledgement, HARQ-ACK, information corresponding to the first PDSCH and a second HARQ-ACK information corresponding to the second PDSCH, wherein the method further comprising: allocating (2130, 2160) a transmission power to the PUCCH and a physical uplink shared channel, PUSCH, according to a priority of the PUCCH and the PUSCH. receiving, from a base station, configuration information on a first control resource set, CORESET, associated with a first transmission configuration indicator, TCI, state configuration and a second CORESET associated with a second TCI state configuration; receiving (2010; 2030) a first physical downlink control channel, PDCCH, in the first CORESET with the first TCI state configuration and a second PDCCH in the second CORESET with the second TCI state configuration, wherein the first PDCCH includes a first downlink control information, DCI, format scheduling a first physical downlink shared channel, PDSCH, and the second PDCCH includes a second DCI format scheduling a second PDSCH; receiving the first PDSCH scheduled by the first DCI format and the second PDSCH scheduled by the second DCI format; and transmitting, to the base station, a physical uplink control channel, PUCCH, including a first hybrid automatic repeat request acknowledgement, HARQ-ACK, information corresponding to the first PDSCH and a second HARQ-ACK information corresponding to the second PDSCH, wherein the method further comprising: allocating (2130, 2160) a transmission power to the PUCCH and a physical uplink shared channel, PUSCH, according to a priority of the PUCCH and the PUSCH.
A trampoline game comprising: a trampoline having a trampoline frame, a trampoline bed and trampoline poles, wherein the trampoline bed is connected to the trampoline frame by a plurality of springs and the trampoline poles are mounted on trampoline frame members; characterized in that the trampoline game is further comprising a gun having an infrared beam emitter emitting an infrared beam emitter signal when a trigger on the gun is depressed; a target having one or more infrared receivers capable of receiving a signal from the infrared beam emitter of the gun; wherein in use the target is connected to a trampoline pole, wherein the infrared receiver of the target transmits an electrical signal when hit by an infrared beam from the infrared beam emitter of the gun. a trampoline having a trampoline frame, a trampoline bed and trampoline poles, wherein the trampoline bed is connected to the trampoline frame by a plurality of springs and the trampoline poles are mounted on trampoline frame members;
A switching device for opening and closing a circuit between a first electric terminal and a second electric terminal, the switching device comprising: a bus-bar tank having the first electric terminal disposed therein; a circuit-breaker tank having the second electric terminal disposed therein; a bushing arranged between and coupling the bus-bar tank and the circuit-breaker tank; a stationary contact (126, 800) mounted to the bushing by a fixing arrangement, the stationary contact (126, 800) having a first end and a second end, with the first end disposed in the bus-bar tank and having a pivot connection with a blade contact therein to be disposed in electrical connection with the first electric terminal in the bus-bar tank; and a circuit-breaker arrangement arranged inside the circuit-breaker tank and disposed in electrical connection with the second electric terminal therein, the circuit-breaker arrangement adapted to be disposed in contact with the second end of the stationary contact (126, 800), wherein: the stationary contact (126, 800) is at least partially accommodated inside the bushing, and the fixing arrangement is dielectrically shielded inside the bushing. a bus-bar tank having the first electric terminal disposed therein; a circuit-breaker tank having the second electric terminal disposed therein; a bushing arranged between and coupling the bus-bar tank and the circuit-breaker tank; a stationary contact (126, 800) mounted to the bushing by a fixing arrangement, the stationary contact (126, 800) having a first end and a second end, with the first end disposed in the bus-bar tank and having a pivot connection with a blade contact therein to be disposed in electrical connection with the first electric terminal in the bus-bar tank; and a circuit-breaker arrangement arranged inside the circuit-breaker tank and disposed in electrical connection with the second electric terminal therein, the circuit-breaker arrangement adapted to be disposed in contact with the second end of the stationary contact (126, 800), wherein: the stationary contact (126, 800) is at least partially accommodated inside the bushing, and the fixing arrangement is dielectrically shielded inside the bushing. the stationary contact (126, 800) is at least partially accommodated inside the bushing, and the fixing arrangement is dielectrically shielded inside the bushing.
A method for temporally synchronising two signals in a signal transmission device, the two signals being used by a digital predistortion calculation loop to calculate predistortion coefficients applied to the signal to be transmitted before its amplification and its emission, the two signals used by the predistortion calculation loop being: - a first signal corresponding to the signal to be transmitted before or after application of the predistortion, - a second signal corresponding to the emitted signal, the method being characterised in that it comprises consecutively: - the application, to one of the two signals, of a first time offset corresponding substantially to the time gap between the two signals, and - the application, to one of the two signals, of a second time offset corresponding substantially to the time gap between the two signals after application of the first time offset, the second time offset being calculated on the basis of said predistortion coefficients which are expressed linearly as a function of the signal to be transmitted. - a first signal corresponding to the signal to be transmitted before or after application of the predistortion, - a second signal corresponding to the emitted signal, - the application, to one of the two signals, of a first time offset corresponding substantially to the time gap between the two signals, and - the application, to one of the two signals, of a second time offset corresponding substantially to the time gap between the two signals after application of the first time offset, the second time offset being calculated on the basis of said predistortion coefficients which are expressed linearly as a function of the signal to be transmitted.
An insulated submarine cable including a conductive core (3, 3a, 3b) and insulating material (5, 5a, 5b, 5c) surrounding the core, wherein the cable includes: a first length along which the core has a cross-sectional area A1 and the insulating material has a thickness T1; a second length along which the core has a cross-sectional area A3, less than the cross-sectional area A1 of the first length, and the insulating material has a thickness T2, a third length, between the first length and the second length, including a joint between respective sections (3a, 3b) of the core along which the core changes in cross-sectional area from A1 to A3; characterized in that the thickness T2 of the second length is less than the thickness T1 of the first length, and the cable comprises a fourth length, between the third and the second length, along which the thickness of the insulating material reduces to T2. a first length along which the core has a cross-sectional area A1 and the insulating material has a thickness T1; a second length along which the core has a cross-sectional area A3, less than the cross-sectional area A1 of the first length, and the insulating material has a thickness T2, a third length, between the first length and the second length, including a joint between respective sections (3a, 3b) of the core along which the core changes in cross-sectional area from A1 to A3; characterized in that the thickness T2 of the second length is less than the thickness T1 of the first length, and the cable comprises a fourth length, between the third and the second length, along which the thickness of the insulating material reduces to T2.
An apparatus (100; 300; 400) for the electrical interconnection of a plurality of electric battery cell units (102a, 102b, 102c, 102d, 102e, 102f), wherein the apparatus comprises a housing comprises two or more housing units (108a-d), wherein each one (108a-d) of the two or more housing units (108a-d) forms at least one room (110c, 110d) for housing a plurality of electric battery cell units (102a, 102b, 102c, 102d, 102e, 102f), and one or more electrical conductors (112a, 112b, 112c) for the electrical connection of one electric battery cell unit (102a, 102b, 102c, 102d, 102e, 102f) of the plurality of electric battery cell units (102a, 102b, 102c, 102d, 102e, 102f) to another electric battery cell unit (102a, 102b, 102c, 102d, 102e, 102f) of the plurality of electric battery cell units (102a, 102b, 102c, 102d, 102e, 102f), wherein each one of the two or more housing units (108a-d) comprises one or more walls (114a-d, 116a-d, 118a-d, 120a-d), wherein the at least one room (100c, 110c) of the housing unit (108a-d) is defined by the one or more walls (114a-d, 116a-d, 118a-d, 120a-d) of the housing unit (108a-d), wherein the wall (114a-d, 116a-d, 118a-d, 120a-d) of each one of the two or more housing units (108a-d) comprises one or more seats (122c, 122d) for holding the electrical conductor (112a, 112b, 112c), wherein the seat (122c, 122d) forms a compartment (128c, 128d) for holding the electrical conductor (112a, 112b, 112c). a housing comprises two or more housing units (108a-d), wherein each one (108a-d) of the two or more housing units (108a-d) forms at least one room (110c, 110d) for housing a plurality of electric battery cell units (102a, 102b, 102c, 102d, 102e, 102f), and one or more electrical conductors (112a, 112b, 112c) for the electrical connection of one electric battery cell unit (102a, 102b, 102c, 102d, 102e, 102f) of the plurality of electric battery cell units (102a, 102b, 102c, 102d, 102e, 102f) to another electric battery cell unit (102a, 102b, 102c, 102d, 102e, 102f) of the plurality of electric battery cell units (102a, 102b, 102c, 102d, 102e, 102f), wherein each one of the two or more housing units (108a-d) comprises one or more walls (114a-d, 116a-d, 118a-d, 120a-d), wherein the at least one room (100c, 110c) of the housing unit (108a-d) is defined by the one or more walls (114a-d, 116a-d, 118a-d, 120a-d) of the housing unit (108a-d), wherein the wall (114a-d, 116a-d, 118a-d, 120a-d) of each one of the two or more housing units (108a-d) comprises one or more seats (122c, 122d) for holding the electrical conductor (112a, 112b, 112c), wherein the seat (122c, 122d) forms a compartment (128c, 128d) for holding the electrical conductor (112a, 112b, 112c).
Zeolite of the doped aluminosilicate type, that is undergoing ion exchange, by at least one cation of a transition metal selected from the group formed by Cu +, Cu 2+, Ag +, Zn 2+, and surface modified by at least one agent selected from the quaternary ammoniums having the formula -N(R 1 R 2 R 3 R 4) + in which the groups R 1, R 2, R 3 and R 4, identical or different, represent alkyl groups in C 1 -C 20 and the sodium or potassium salts of fatty acids in C 8 -C 20.
Adapter to connect a tensioning device to a winding shaft of a winding element, especially to one of a tarpaulin, comprising a base body, which has a first connecting section, which is arranged for the connection to an engaging element of the tensioning device and a second connecting section, which is opposite the first connecting section and is adapted for the connection to the winding shaft, wherein the second connecting section has a cavity laterally delimited by a circumferential wall, with a cavity bottom, in which cavity an end of the winding shaft can be inserted and within which an engaging element is integrally formed with the base body, which is formed in such a manner that it can form-fittingly engage in a round recess of the winding shaft extending from the outside to the inside and particularly comprising a longitudinal slot, wherein the engaging element is eccentrically arranged inside the cavity of the second connecting section and extends from the cavity bottom preferably substantially over the entire height of the cavity, characterised in that the engaging element - is cylindrical in shape and - is arranged at a distance from the circumferential wall of the cavity by an air gap. - is cylindrical in shape and - is arranged at a distance from the circumferential wall of the cavity by an air gap.
A suture anchor driver comprising: an elongated shaft; a handle (136, 222) at a proximal end of the shaft; an anchor engagement at a distal end of the shaft; and characterized by a clutch (134, 220) attached between the handle (136, 222) and the shaft for transmitting torque applied to the handle (136, 222) to the shaft, the clutch (134, 220) comprising: a slot (160, 232) for frictionally engaging a suture (148, 242); an engagement with the shaft; and an engagement with the handle (136, 222); wherein the engagement with the shaft and the engagement with the handle (136, 222) are located with respect to one another such that a driving torque applied to the handle (136, 222) urges open the slot (160, 232) to release its frictional engagement of the suture (148, 242), thereby allowing suture (148, 242) to slide through the clutch (134, 220). an elongated shaft; a handle (136, 222) at a proximal end of the shaft; an anchor engagement at a distal end of the shaft; and characterized by a clutch (134, 220) attached between the handle (136, 222) and the shaft for transmitting torque applied to the handle (136, 222) to the shaft, the clutch (134, 220) comprising: a slot (160, 232) for frictionally engaging a suture (148, 242); an engagement with the shaft; and an engagement with the handle (136, 222); a slot (160, 232) for frictionally engaging a suture (148, 242); an engagement with the shaft; and an engagement with the handle (136, 222); wherein the engagement with the shaft and the engagement with the handle (136, 222) are located with respect to one another such that a driving torque applied to the handle (136, 222) urges open the slot (160, 232) to release its frictional engagement of the suture (148, 242), thereby allowing suture (148, 242) to slide through the clutch (134, 220).
A method for producing (meth)acrylic resin, the method comprising storing a thiol chain transfer agent in a tank made of an austenitic stainless steel with a Mo content of 0.5 to 7.0 % by mass, transferring the thiol chain transfer agent to a polymerization reactor via a pipe made of an austenitic stainless steel with a Mo content of 0.5 to 7.0 % by mass, and radical-polymerizing methyl methacrylate in the polymerization reactor.