mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a turbo set comprising a turbine and a generator, with the steps of: - providing a first signal, which indicates a reduction in the actual power (PEL, 4) of the generator; - generating a second signal (KU, 10), which indicates a short-circuit interruption, in dependence on the first signal; - resetting the second signal (KU, 10) after a predetermined first time period and blocking the second signal (KU, 10) during a predetermined second time period (TSPKU); - braking and subsequently accelerating the turbine in dependence on the second signal (KU, 10); - passing on the first signal to switching elements (6b, 6c, 6d); - combining the results of the switching elements (6b, 6c, 6d) in a switching element; - directly passing on the result of the switching element to a means for generating a third signal (LAW, 8), which indicates a load shedding of the turbo set, after a predetermined third time period (TLAW) in dependence on the first signal if the first signal is provided as a result of a lowering of the actual power (PEL, 4) of the generator to a predetermined negative value (GPNEG) and the actual power (PEL, 4) of the generator has become less than twice the own requirement (GP2EB) and the difference between a target power (PSW, 5) and the actual power (PEL, 4) of the generator has become greater than twice the own requirement (GP2EB) of the turbo set; and - load shedding to the own requirement of the turbo set in dependence on the third signal (LAW, 8). - providing a first signal, which indicates a reduction in the actual power (PEL, 4) of the generator; - generating a second signal (KU, 10), which indicates a short-circuit interruption, in dependence on the first signal; - resetting the second signal (KU, 10) after a predetermined first time period and blocking the second signal (KU, 10) during a predetermined second time period (TSPKU); - braking and subsequently accelerating the turbine in dependence on the second signal (KU, 10); - passing on the first signal to switching elements (6b, 6c, 6d); - combining the results of the switching elements (6b, 6c, 6d) in a switching element; - directly passing on the result of the switching element to a means for generating a third signal (LAW, 8), which indicates a load shedding of the turbo set, after a predetermined third time period (TLAW) in dependence on the first signal if the first signal is provided as a result of a lowering of the actual power (PEL, 4) of the generator to a predetermined negative value (GPNEG) and the actual power (PEL, 4) of the generator has become less than twice the own requirement (GP2EB) and the difference between a target power (PSW, 5) and the actual power (PEL, 4) of the generator has become greater than twice the own requirement (GP2EB) of the turbo set; and - load shedding to the own requirement of the turbo set in dependence on the third signal (LAW, 8).
A suture passer assembly comprising: a jaw portion extending along an axis and having a proximal end; a handle portion rotatably connected with the proximal end of the jaw portion such that the handle portion is configured to fully rotate about the axis with respect to the jaw portion, and a needle assembly configured to pass through the jaw portion and adapted to be passed along the axis by cooperation of the needle assembly with the handle portion, said suture passer assembly being characterized in that the handle portion includes a handle lever, in that a cavity is disposed in an upper portion of the handle lever, in that the needle assembly has a needle grip including a neck and a knob and in that the knob fits within the cavity of the handle lever, which allows the needle assembly to move along the axis according to the position of the handle lever, and the neck of the needle grip fits into the edge of the cavity in the handle lever and allows the needle assembly to rotate about an axis coincident to or generally parallel to the axis. a jaw portion extending along an axis and having a proximal end; a handle portion rotatably connected with the proximal end of the jaw portion such that the handle portion is configured to fully rotate about the axis with respect to the jaw portion, and a needle assembly configured to pass through the jaw portion and adapted to be passed along the axis by cooperation of the needle assembly with the handle portion, said suture passer assembly being characterized in that the handle portion includes a handle lever, in that a cavity is disposed in an upper portion of the handle lever, in that the needle assembly has a needle grip including a neck and a knob and in that the knob fits within the cavity of the handle lever, which allows the needle assembly to move along the axis according to the position of the handle lever, and the neck of the needle grip fits into the edge of the cavity in the handle lever and allows the needle assembly to rotate about an axis coincident to or generally parallel to the axis.
An ore fine agglomerate to be used in a sintering process, wherein the ore fine agglomerate is formed by a mixture of ore fine particles with a granulometry lower than 0.150 mm and an agglomerating agent comprising a ratio of 0.5 to 5.0% by mass of sodium silicate, and additives formed of manioc starch in a range of 0.5 to 1.0% by mass and microsilica in a range of 0.3 to 1.0% by mass, wherein the ore fine agglomerate has diameters between 0.01 mm and 8.0 mm, and wherein the agglomerate undergoes a curing process under temperatures varying from about 100°C to about 150°C.
A method of wireless communication performed by a packet data network, PDN, gateway, wherein the PDN gateway is connected to a radio access network, RAN, including a primary cell utilizing a licensed spectrum and a secondary cell utilizing an unlicensed spectrum, characterized in that the method comprising the steps of: determining an authorization for data traffic to be offloaded to the secondary cell based on data traffic characteristics; and transmitting an indication of the authorization to the RAN. determining an authorization for data traffic to be offloaded to the secondary cell based on data traffic characteristics; and transmitting an indication of the authorization to the RAN.
Use of a disinfectant composition, which is a solution and which comprises a combination of components citric acid or a physiologically acceptable salt thereof, and poly(hexamethylenebiguanide) or a physiologically acceptable salt thereof; wherein components and are present in an amount exhibiting a synergistic anti-microbial effect; as a catheter lock solution. citric acid or a physiologically acceptable salt thereof, and poly(hexamethylenebiguanide) or a physiologically acceptable salt thereof; wherein components and are present in an amount exhibiting a synergistic anti-microbial effect;
A metaglene assembly for use in a shoulder prosthesis, comprising: a metaglene body having a lateral, prosthesis-facing side, and a medial, bone-facing side, the metaglene body having at least one metaglene fastener hole (137A, 137B, 137C, 137D) extending through it, an augment extending medially from the medial, bone-facing side of the metaglene body, a void defined by a portion of the medial, bone-facing side of the metaglene body and a lateral portion of the augment, at least one metaglene fastener (34A, 34B) which can extend through the metaglene fastener hole, at least one augment fastener having an augment fastener head, and at least one augment fastener hole (145A, 145B, 145C, 145D) extending from the void through the augment and having an augment fastener seat which is arranged such that the augment fastener head can be received in the augment fastener seat when the augment fastener extends through the augment fastener hole with the augment fastener head not extending into the void, characterised in that the augment fastener seat is defined on the lateral portion of the augment. a metaglene body having a lateral, prosthesis-facing side, and a medial, bone-facing side, the metaglene body having at least one metaglene fastener hole (137A, 137B, 137C, 137D) extending through it, an augment extending medially from the medial, bone-facing side of the metaglene body, a void defined by a portion of the medial, bone-facing side of the metaglene body and a lateral portion of the augment, at least one metaglene fastener (34A, 34B) which can extend through the metaglene fastener hole, at least one augment fastener having an augment fastener head, and at least one augment fastener hole (145A, 145B, 145C, 145D) extending from the void through the augment and having an augment fastener seat which is arranged such that the augment fastener head can be received in the augment fastener seat when the augment fastener extends through the augment fastener hole with the augment fastener head not extending into the void, characterised in that the augment fastener seat is defined on the lateral portion of the augment.
A method for diagnosing Parkinson's disease comprising the steps of: (i) determining an expression profile of a set comprising at least two miRNAs representative for Parkinson's disease in a blood cell preparation derived from a whole blood sample from a subject, and (ii) comparing said expression profile to a reference, wherein the comparison of said expression profile to said reference allows for the diagnosis of Parkinson's disease, (iii) optionally identifying a subject afflicted with Parkinson's disease for therapeutic intervention, wherein the nucleotide sequences of the miRNAs comprised in the set are selected from the group consisting of SEQ ID NO: 1 to SEQ ID NO: 51, and wherein the blood cell preparation derived from the whole blood sample is a platelet preparation. (i) determining an expression profile of a set comprising at least two miRNAs representative for Parkinson's disease in a blood cell preparation derived from a whole blood sample from a subject, and (ii) comparing said expression profile to a reference, wherein the comparison of said expression profile to said reference allows for the diagnosis of Parkinson's disease, (iii) optionally identifying a subject afflicted with Parkinson's disease for therapeutic intervention,
A battery cover tightening mechanism, comprising: a battery cover and a cover plate, the cover plate rotatably connected to the battery cover and forming a cavity; wherein the cover plate is provided with a boss, and the boss is correspondingly mounted into the cavity; wherein a resistance member is sleeved on the boss, an end of the resistance member being fixed to the battery cover and the other end of the resistance member being fixed to the cover plate; characterized in that the resistance member comprises a resistant spring, an upper resistance wheel and a lower resistance wheel connected to the upper resistance wheel; wherein an end of the resistant spring is fixed to the battery cover and the other end of the resistant spring is fixed to the upper resistance wheel, wherein the lower resistance wheel is fixed to the cover plate. a battery cover and a cover plate, the cover plate rotatably connected to the battery cover and forming a cavity; wherein the cover plate is provided with a boss, and the boss is correspondingly mounted into the cavity; wherein a resistance member is sleeved on the boss, an end of the resistance member being fixed to the battery cover and the other end of the resistance member being fixed to the cover plate; characterized in that the resistance member comprises a resistant spring, an upper resistance wheel and a lower resistance wheel connected to the upper resistance wheel; wherein an end of the resistant spring is fixed to the battery cover and the other end of the resistant spring is fixed to the upper resistance wheel, wherein the lower resistance wheel is fixed to the cover plate.
A process for producing light olefins comprising ethylene and propylene from hydrocarbon feedstock, comprising the steps of: (a) providing full-range naphtha or kerosene as feedstock; (b) feeding the feedstock into at least one fixed-bed or fluidized-bed reactor where it is allowed to react in the presence of a catalyst and steam, wherein the catalyst is produced by the water evaporation of a raw material mixture comprising 100 parts by weight of a molecule sieve with a framework of -Si-OH-Al- groups, 0.01-5.0 parts by weight of a water-insoluble metal salt with a solubility product (Ksp) of less than 10 -4, and 0.05-17.0 parts by weight of a phosphate compound; and (c) separating and recovering light olefins comprising ethylene and propylene from the effluent of the reaction zone; wherein the water-insoluble metal salt is oxide, hydroxide or oxalate of at least one metal selected from a group consisting of alkaline earth metals and transition metals. (a) providing full-range naphtha or kerosene as feedstock; (b) feeding the feedstock into at least one fixed-bed or fluidized-bed reactor where it is allowed to react in the presence of a catalyst and steam, wherein the catalyst is produced by the water evaporation of a raw material mixture comprising 100 parts by weight of a molecule sieve with a framework of -Si-OH-Al- groups, 0.01-5.0 parts by weight of a water-insoluble metal salt with a solubility product (Ksp) of less than 10 -4, and 0.05-17.0 parts by weight of a phosphate compound; and (c) separating and recovering light olefins comprising ethylene and propylene from the effluent of the reaction zone;
An optical device (100; 100-1), comprising: a substrate; a first transparent thin film layer formed at one surface of the substrate; a quantum dot layer formed at an upper surface of the first transparent thin film layer and consisting of quantum dot particles; a protective layer formed on both the upper surface and the bottom surface of the quantum dot layer; a barrier member (130; 130-1) formed on the upper surface of the first transparent thin film layer for establishing an area formed with the quantum dot layer and the protective layer; and a second transparent thin film layer formed at an extreme upper layer of the optical device (100; 100-1), characterized in that: the protective layer is formed with metallic oxide nano particles; and the second transparent thin film layer is formed in such a way that the quantum dot layer and the protective layer are airtightly sealed. a substrate; a first transparent thin film layer formed at one surface of the substrate; a quantum dot layer formed at an upper surface of the first transparent thin film layer and consisting of quantum dot particles; a protective layer formed on both the upper surface and the bottom surface of the quantum dot layer; a barrier member (130; 130-1) formed on the upper surface of the first transparent thin film layer for establishing an area formed with the quantum dot layer and the protective layer; and a second transparent thin film layer formed at an extreme upper layer of the optical device (100; 100-1), characterized in that: the protective layer is formed with metallic oxide nano particles; and the second transparent thin film layer is formed in such a way that the quantum dot layer and the protective layer are airtightly sealed. the protective layer is formed with metallic oxide nano particles; and the second transparent thin film layer is formed in such a way that the quantum dot layer and the protective layer are airtightly sealed.
A staple cartridge (10500 - Figure 159), comprising: a cartridge body; a plurality of staples removably stored within said cartridge body; a tissue thickness compensator, comprising: a first end; a second end; a compressible portion, wherein said staples are configured to capture at least a portion of said compressible portion therein when said staples are moved from an unfired position to a fired position; and a detent portion; the staple cartridge further comprising a firing member at least partially stored within said cartridge body, wherein said firing member is movable from said first end of said tissue thickness compensator toward said second end, wherein said firing member is configured to move said staples from said unfired position to said fired position, and wherein said detent portion is configured to releasably hold said firing member in position; and wherein said detent portion comprises a tab, wherein said firing member further comprises a recess configured to receive said tab, and wherein said tab is configured to slide out of said recess when said firing member is advanced toward said second end. a cartridge body; a plurality of staples removably stored within said cartridge body; a tissue thickness compensator, comprising: a first end; a second end; a compressible portion, wherein said staples are configured to capture at least a portion of said compressible portion therein when said staples are moved from an unfired position to a fired position; and a detent portion; the staple cartridge further comprising a first end; a second end; a compressible portion, wherein said staples are configured to capture at least a portion of said compressible portion therein when said staples are moved from an unfired position to a fired position; and a detent portion; the staple cartridge further comprising a firing member at least partially stored within said cartridge body, wherein said firing member is movable from said first end of said tissue thickness compensator toward said second end, wherein said firing member is configured to move said staples from said unfired position to said fired position, and wherein said detent portion is configured to releasably hold said firing member in position; and wherein said detent portion comprises a tab, wherein said firing member further comprises a recess configured to receive said tab, and wherein said tab is configured to slide out of said recess when said firing member is advanced toward said second end.
A method for the online monitoring of film quality during a production process of a plastic film, in particular a blown film or a cast film, in which - film material is fed out of an outlet device in the form of a melt lug by a transport device, wherein the film material is cooled on or in front of the transport device, - the film material solidifies in front of or on the transport device, comprising the following steps: a) Determining a position of a frost line in which the film material is solidified in front of or on the transport device, b) measuring at least one process parameter of the solidifying film material present in the vicinity of the front line, characterized by the following steps: c) calculating at least one relaxation variable, which takes into account the relaxations of the molecular orientations of the film material, d) checking to what extent the at least one relaxation variable lies within process limits, wherein measuring points for measuring process parameters are provided, which lie transversely to the transport direction of the film material predetermined by the transport device, and wherein according to step c) a relaxation variable is calculated for each measuring point, wherein in step d) the individual relaxation variables are brought into correlation to process limits. - film material is fed out of an outlet device in the form of a melt lug by a transport device, wherein the film material is cooled on or in front of the transport device, - the film material solidifies in front of or on the transport device, comprising the following steps: a) Determining a position of a frost line in which the film material is solidified in front of or on the transport device, b) measuring at least one process parameter of the solidifying film material present in the vicinity of the front line, characterized by the following steps: c) calculating at least one relaxation variable, which takes into account the relaxations of the molecular orientations of the film material, d) checking to what extent the at least one relaxation variable lies within process limits, wherein measuring points for measuring process parameters are provided, which lie transversely to the transport direction of the film material predetermined by the transport device, and wherein according to step c) a relaxation variable is calculated for each measuring point, wherein in step d) the individual relaxation variables are brought into correlation to process limits. a) Determining a position of a frost line in which the film material is solidified in front of or on the transport device, b) measuring at least one process parameter of the solidifying film material present in the vicinity of the front line, c) calculating at least one relaxation variable, which takes into account the relaxations of the molecular orientations of the film material, d) checking to what extent the at least one relaxation variable lies within process limits,
A light emitting diode device comprising: an LED die having a top surface comprising a current spreading layer; and a metal electrode pattern (42, 44, 46) on the top surface for conducting current through the LED for energizing the LED, the electrode pattern (42, 44, 46) comprising: a plurality of light blocking metal contacts over the top surface, characterized in that the light blocking metal contacts have widths between 2 and 10 times a transfer length L t of the contacts, where the transfer length is defined as, L t = ρ c R s, wherein R s is the sheet resistance in ohms per square of the current spreading layer, and p c is the contact resistivity of the interface of the contact and the current spreading layer expressed in ohm/m 2; and metal connectors connecting ones of the contacts together, the metal connectors having widths less than 2L t. an LED die having a top surface comprising a current spreading layer; and a metal electrode pattern (42, 44, 46) on the top surface for conducting current through the LED for energizing the LED, the electrode pattern (42, 44, 46) comprising: a plurality of light blocking metal contacts over the top surface, characterized in that the light blocking metal contacts have widths between 2 and 10 times a transfer length L t of the contacts, where the transfer length is defined as, L t = ρ c R s, wherein R s is the sheet resistance in ohms per square of the current spreading layer, and p c is the contact resistivity of the interface of the contact and the current spreading layer expressed in ohm/m 2; and metal connectors connecting ones of the contacts together, the metal connectors having widths less than 2L t. a plurality of light blocking metal contacts over the top surface, characterized in that the light blocking metal contacts have widths between 2 and 10 times a transfer length L t of the contacts, where the transfer length is defined as, L t = ρ c R s, wherein R s is the sheet resistance in ohms per square of the current spreading layer, and p c is the contact resistivity of the interface of the contact and the current spreading layer expressed in ohm/m 2; and metal connectors connecting ones of the contacts together, the metal connectors having widths less than 2L t.