mhurhangee/ep-ind-claims huggingface dataset:
A conveyor assembly for orienting and grouping together flat baking products, and configurable for the purpose of packaging either stacks or rolls of flat baking products by a packaging machine, the conveyor assembly at least comprising a first conveying device, a first transfer device, a replaceable forming plate and a second conveying device, wherein - the first conveying device is configured to receive the plurality of flat baking products from a supply in a supply pattern, wherein the flat baking products, in the supply pattern, have a flat orientation with regard to the conveying plane of the first conveying device, and wherein the first conveying device comprises one or a plurality of robots, configured to form partial stacks of flat baking products from the plurality of flat baking products; - the first transfer device is configured to simultaneously transfer a group of partial stacks into the replaceable forming plate; - the replaceable forming plate comprises a number of parallel grooves which corresponds to the groups of partial stacks and is either configured to form one or more stacks or configured to form one or more rolls of flat baking products by moving the groups of partial stacks through the grooves; - the second conveying device is configured to receive the stacks or rolls of flat baking products from the replaceable forming plate and transport the stacks or rolls of flat baking products to the packaging machine, and wherein the second conveying device is furthermore configured to adjust the intermediate distance and speed of stacks or rolls of flat baking products, wherein the intermediate distance and speed are determined by the packaging machine. - the first conveying device is configured to receive the plurality of flat baking products from a supply in a supply pattern, wherein the flat baking products, in the supply pattern, have a flat orientation with regard to the conveying plane of the first conveying device, and wherein the first conveying device comprises one or a plurality of robots, configured to form partial stacks of flat baking products from the plurality of flat baking products; - the first transfer device is configured to simultaneously transfer a group of partial stacks into the replaceable forming plate; - the replaceable forming plate comprises a number of parallel grooves which corresponds to the groups of partial stacks and is either configured to form one or more stacks or configured to form one or more rolls of flat baking products by moving the groups of partial stacks through the grooves; - the second conveying device is configured to receive the stacks or rolls of flat baking products from the replaceable forming plate and transport the stacks or rolls of flat baking products to the packaging machine, and wherein the second conveying device is furthermore configured to adjust the intermediate distance and speed of stacks or rolls of flat baking products, wherein the intermediate distance and speed are determined by the packaging machine.
Method for determining the speed of a pump, wherein a fluid pressure of a fluid is controlled to a set fluid pressure p soll by means of the pump and wherein the fluid is a reducing agent for exhaust gas aftertreatment, comprising the steps: - providing a pressure signal in a predetermined time interval, the pressure signal indicating a fluid pressure of the fluid or being a quantity from which the fluid pressure of the fluid can be derived; and - determining the rotational speed from time variations of the pressure signal in the predetermined time interval, wherein the determination of the rotational speed is not based on a Fourier transform of the pressure signal; characterised in that the determination of the rotational speed comprises a) determining a number of rising and/or falling edges of the pressure signal in the predetermined time interval; and/or b) determining at least one time duration of a rising and/or falling edge of the pressure signal in the predetermined time interval. - providing a pressure signal in a predetermined time interval, the pressure signal indicating a fluid pressure of the fluid or being a quantity from which the fluid pressure of the fluid can be derived; and - determining the rotational speed from time variations of the pressure signal in the predetermined time interval, wherein the determination of the rotational speed is not based on a Fourier transform of the pressure signal; a) determining a number of rising and/or falling edges of the pressure signal in the predetermined time interval; and/or b) determining at least one time duration of a rising and/or falling edge of the pressure signal in the predetermined time interval.
A method for processing single-optical fibre fault in a Synchronous Digital Hierarchy network, an optical fibre comprising a transmitting optical fibre and a receiving optical fibre, characterized by comprising: when a non-decision node in a multiplex section protection group across network elements detects alarm information in the receiving optical fibre which triggers switching of a multiplex section protection group, determining whether a state of a communication link between the non-decision node and a decision node in the multiplex section protection group across network elements is normal or not, if the communication link is abnormal, mapping the alarm information to a transmitting optical fibre end which works as an opposite-end protection group, through the transmitting optical fibre; wherein the decision node in the multiplex section protection group across network elements is a node that performs protocol decisions and exchanges K-byte with the opposite-end protection group, and other network elements are called non-decision nodes. when a non-decision node in a multiplex section protection group across network elements detects alarm information in the receiving optical fibre which triggers switching of a multiplex section protection group, determining whether a state of a communication link between the non-decision node and a decision node in the multiplex section protection group across network elements is normal or not, if the communication link is abnormal, mapping the alarm information to a transmitting optical fibre end which works as an opposite-end protection group, through the transmitting optical fibre; wherein the decision node in the multiplex section protection group across network elements is a node that performs protocol decisions and exchanges K-byte with the opposite-end protection group, and other network elements are called non-decision nodes.
Mechanism for setting a fuse, applied to the structure of a firearm, comprising a fuse setter, for programming said fuse, said fuse setter being fixed to a supporting structure and comprising a reference portion and a fuse-setting portion, which turn about the longitudinal axis of the fuse and adapted to set the fuse of the cartridge, said supporting structure of the fuse-setting mechanism comprises a motor plate, fixed to which are at least two motors, for rotating the fuse setter said supporting structure supports a device for controlling the position of the fuse setter, formed by a moving equipment, by an actuator of vertical movement, and by an actuator of horizontal movement, said actuators being adapted for movement along a horizontal axis of the supporting structure, along a vertical axis the moving equipment itself for positioning the fuse setter with respect to the cartridge, which is kept in a pre-set position, said mechanism for setting fuse is characterized in that it comprises at least two rotation control device for controlling the rotation of the fuse setter, adapted to determinate the angular variation transferred from the motors to setting device.
A method comprising: receiving, by an augmented service capability exposure function, A-SCEF, a command message from an application server, AS, comprising: an external identification tag, an application programming interface, API, instruction associated with the external identification tag, and a security credential; confirming that the security credential is authorized for the external identification tag; in response to the confirming, locating in a first electronically searchable catalog, by the A-SCEF, at least one network identifier associated with the external identification tag, wherein the at least one network identifier is different from the external identification tag; selecting, by the A-SCEF, a data connectivity pathway to at least one user equipment, UE, from at least two data connectivity pathways based at least in part on a selection hierarchy; and sending, by the A-SCEF, a communication to the at least one UE associated with the at least one network identifier based on the API instruction, the communication being sent over the data connectivity pathway that is selected. receiving, by an augmented service capability exposure function, A-SCEF, a command message from an application server, AS, comprising: an external identification tag, an application programming interface, API, instruction associated with the external identification tag, and a security credential; an external identification tag, an application programming interface, API, instruction associated with the external identification tag, and a security credential; confirming that the security credential is authorized for the external identification tag; in response to the confirming, locating in a first electronically searchable catalog, by the A-SCEF, at least one network identifier associated with the external identification tag, wherein the at least one network identifier is different from the external identification tag; selecting, by the A-SCEF, a data connectivity pathway to at least one user equipment, UE, from at least two data connectivity pathways based at least in part on a selection hierarchy; and sending, by the A-SCEF, a communication to the at least one UE associated with the at least one network identifier based on the API instruction, the communication being sent over the data connectivity pathway that is selected.
A method for manufacturing a nerve stimulator, comprising the following steps: S1: providing a metal underlayer, and cutting out a plurality of metal pins on the metal underlayer from a cutting side of the metal underlayer; S2: performing glass filling between the metal pins cut out on the metal underlayer, so that the cut-out metal pins are completely covered with glass; S3: performing double-sided thinning on the metal underlayer subjected to the glass filling, wherein the glass covering layer on the cutting side of the metal underlayer is thinned until the metal pins are exposed, and the metal underlayer on the other side of the metal underlayer is thinned and removed until all exposed to the glass substrate side; and S4: processing one side of the product obtained by the above step, so that the metal pins in the glass substrate form stimulation portions on the glass plane, and stimulation electrodes with the glass substrate are integrally formed. S1: providing a metal underlayer, and cutting out a plurality of metal pins on the metal underlayer from a cutting side of the metal underlayer; S2: performing glass filling between the metal pins cut out on the metal underlayer, so that the cut-out metal pins are completely covered with glass; S3: performing double-sided thinning on the metal underlayer subjected to the glass filling, wherein the glass covering layer on the cutting side of the metal underlayer is thinned until the metal pins are exposed, and the metal underlayer on the other side of the metal underlayer is thinned and removed until all exposed to the glass substrate side; and S4: processing one side of the product obtained by the above step, so that the metal pins in the glass substrate form stimulation portions on the glass plane, and stimulation electrodes with the glass substrate are integrally formed.
A lithium metasilicate glass ceramic comprising in weight percent: SiO 2 from 53.0 to 59.0; Al 2 O 3 from 2.5 to 3.4 K 2 O from 3.5 to 4.1 CeO 2 from 0 to 2.0 Li 2 O from 14.0 to 16.0; ZrO 2 from 2.5 to 6.0 TiO 2 from 0.5 to 1.8 P 2 O 5 from 2.7 to 4.0 Er 2 O 3 from 0 to 2.0 V 2 O 5 from 0 to 1.0 GeO 2 from 7 to 8.4 MnO 2 from 0 to 1.0 Tb 4 O 7 from 0 to 2.0 Ta 2 O 5 from 0 to 1.0 Dy 2 O 3 from 0 to 1.0 Pr 2 O 3 from 0 to 1.0 Sm 2 O 3 from 0 to 6.0 Eu 2 O 3 from 0 to 1.0; wherein the molar ratio of Si/Li is between 1.8 and 1.9. SiO 2 from 53.0 to 59.0; Al 2 O 3 from 2.5 to 3.4 K 2 O from 3.5 to 4.1 CeO 2 from 0 to 2.0 Li 2 O from 14.0 to 16.0; ZrO 2 from 2.5 to 6.0 TiO 2 from 0.5 to 1.8 P 2 O 5 from 2.7 to 4.0 Er 2 O 3 from 0 to 2.0 V 2 O 5 from 0 to 1.0 GeO 2 from 7 to 8.4 MnO 2 from 0 to 1.0 Tb 4 O 7 from 0 to 2.0 Ta 2 O 5 from 0 to 1.0 Dy 2 O 3 from 0 to 1.0 Pr 2 O 3 from 0 to 1.0 Sm 2 O 3 from 0 to 6.0 Eu 2 O 3 from 0 to 1.0; wherein the molar ratio of Si/Li is between 1.8 and 1.9.
A method for validation of transaction policy compliance comprising: implementing, by an authority, code, including a transaction policy compliance check, in a form of a trusted application to be executed in a trusted execution environment, TEE; attesting and provisioning, by the authority, a secret to a trusted application instance in the TEE, the trusted application instance being an instance of the trusted application that executes the authority code; deriving, by the authority, from the secret a corresponding public certificate and making the public certificate available to verifying nodes of a distributed ledger system; executing the trusted application instance on a client transaction request to generate a policy compliance result; producing, by the trusted application instance, a digital signature as a proof of the execution of the authority code, and generating a transaction object including the policy compliance result and the proof of the execution; proposing the transaction object to the distributed ledger system; and verifying, by verifying nodes of the distributed ledger system using the public certificate, the policy compliance result and the digital signature produced by the trusted application instance as the proof of the execution during transaction validation in the distributed ledger system. implementing, by an authority, code, including a transaction policy compliance check, in a form of a trusted application to be executed in a trusted execution environment, TEE; attesting and provisioning, by the authority, a secret to a trusted application instance in the TEE, the trusted application instance being an instance of the trusted application that executes the authority code; deriving, by the authority, from the secret a corresponding public certificate and making the public certificate available to verifying nodes of a distributed ledger system; executing the trusted application instance on a client transaction request to generate a policy compliance result; producing, by the trusted application instance, a digital signature as a proof of the execution of the authority code, and generating a transaction object including the policy compliance result and the proof of the execution; proposing the transaction object to the distributed ledger system; and verifying, by verifying nodes of the distributed ledger system using the public certificate, the policy compliance result and the digital signature produced by the trusted application instance as the proof of the execution during transaction validation in the distributed ledger system.
A mass flow verifier comprising: a chamber configured to receive a fluid; a critical flow nozzle in serial fluid connection with the chamber upstream of the chamber; a first pressure sensor that detects fluid pressure in the chamber; a second pressure sensor that detects fluid pressure upstream of the critical flow nozzle; and a controller configured to verify flow rate of the fluid by: (i) at a first flow range, calculating a first flow rate based on a rate of rise in pressure of the fluid as detected by the first pressure sensor and determining a gas property function of the fluid based on pressures as detected by the first pressure sensor and the second pressure sensor, and (ii) at a second flow range, calculating a second flow rate according to a critical flow nozzle measurement based on pressure detected by the second pressure sensor and the determined gas property function. a chamber configured to receive a fluid; a critical flow nozzle in serial fluid connection with the chamber upstream of the chamber; a first pressure sensor that detects fluid pressure in the chamber; a second pressure sensor that detects fluid pressure upstream of the critical flow nozzle; and a controller configured to verify flow rate of the fluid by: (i) at a first flow range, calculating a first flow rate based on a rate of rise in pressure of the fluid as detected by the first pressure sensor and determining a gas property function of the fluid based on pressures as detected by the first pressure sensor and the second pressure sensor, and (ii) at a second flow range, calculating a second flow rate according to a critical flow nozzle measurement based on pressure detected by the second pressure sensor and the determined gas property function. (i) at a first flow range, calculating a first flow rate based on a rate of rise in pressure of the fluid as detected by the first pressure sensor and determining a gas property function of the fluid based on pressures as detected by the first pressure sensor and the second pressure sensor, and (ii) at a second flow range, calculating a second flow rate according to a critical flow nozzle measurement based on pressure detected by the second pressure sensor and the determined gas property function.
A biodegradable injection mouldable polymer having the composition on a dry weight basis of: a) from 50 to 85% by weight of a starch and/or a modified high amylose starch; b) from 4 to 13% by weight of a water soluble polymer selected from polyvinylacetate, polyvinyl alcohol and copolymers of ethylene and vinylalcohol which have a melting point compatible with the molten state of the starch components; c) from 10 to 35% by weight of a sorbitol and at least one other polyol selected from the group consisting of glycerol, maltitol, xylitol, erythritol, mannitol, ethylene glycol, diethylene glycol, and polyethylene glycol; d) from 0.5% to 10% of a polyethylene oxide; e) a C 12-22 fatty acid or salt present in an amount up to 1.5% by weight, and f) from 0.25 to 3% of a food grade emulsifier, selected from the group consisting of Propylene glycol monostearate, Glycerol Monoleate, Glycerol monostearate, Acetylated monoglycerides, Sorbitan monooleate, Propylene glycol monolaurate, Sorbitan monostearate, Calcium stearoxyl-2-lactylate, Glycerol monolaurate, Sorbitan monopalmitate, Soy lecithin, Diacetylated tartaric acid esters of monoglycerides, Sodium Stearoyl lactylate and Sorbitan monolaurate. a) from 50 to 85% by weight of a starch and/or a modified high amylose starch; b) from 4 to 13% by weight of a water soluble polymer selected from polyvinylacetate, polyvinyl alcohol and copolymers of ethylene and vinylalcohol which have a melting point compatible with the molten state of the starch components; c) from 10 to 35% by weight of a sorbitol and at least one other polyol selected from the group consisting of glycerol, maltitol, xylitol, erythritol, mannitol, ethylene glycol, diethylene glycol, and polyethylene glycol; d) from 0.5% to 10% of a polyethylene oxide; e) a C 12-22 fatty acid or salt present in an amount up to 1.5% by weight, and f) from 0.25 to 3% of a food grade emulsifier, selected from the group consisting of Propylene glycol monostearate, Glycerol Monoleate, Glycerol monostearate, Acetylated monoglycerides, Sorbitan monooleate, Propylene glycol monolaurate, Sorbitan monostearate, Calcium stearoxyl-2-lactylate, Glycerol monolaurate, Sorbitan monopalmitate, Soy lecithin, Diacetylated tartaric acid esters of monoglycerides, Sodium Stearoyl lactylate and Sorbitan monolaurate.
A method for the conditioning of septic waste water to prevent the formation of hydrogen sulphide and prevent subsequent precipitation of FeS, characterized in that the method comprises the step of adding simultaneously to the septic waste water an aqueous solution of iron salts, selected from the group consisting of FeCl 2, FeCl 3, FeClSO 4, FeSO 4 and mixtures thereof, which react with an anionic polymer, selected from the group consisting of calcium lignosulphonate and sodium lignosulphonate, which interacts with the formed FeS to a colloidal sol, stable to precipitation.
A shoe sole for an article of footwear, the sole extending in a longitudinal direction from a heel region, through a midfoot region, to a forefoot region, the sole comprising: a midsole having an upper surface for attachment to at least one of an insole and a shoe upper, and a lower surface disposed opposite the upper surface, the midsole including a forefoot cushioning element, a midfoot cushioning element, and a heel cushioning element, the forefoot cushioning element and the heel cushioning element cooperatively defining a recess in the midfoot region of the shoe sole; and an outsole disposed along the lower surface of the midsole and defining a ground-contacting surface of the sole; wherein the sole has an upwardly convex bottom profile such that an impact region of the sole is defined within the midfoot region, the midfoot cushioning element disposed within the recess, vertically and horizontally between the forefoot cushioning element and the heel cushioning element, and directly above the impact region of the sole. a midsole having an upper surface for attachment to at least one of an insole and a shoe upper, and a lower surface disposed opposite the upper surface, the midsole including a forefoot cushioning element, a midfoot cushioning element, and a heel cushioning element, the forefoot cushioning element and the heel cushioning element cooperatively defining a recess in the midfoot region of the shoe sole; and an outsole disposed along the lower surface of the midsole and defining a ground-contacting surface of the sole; wherein the sole has an upwardly convex bottom profile such that an impact region of the sole is defined within the midfoot region, the midfoot cushioning element disposed within the recess, vertically and horizontally between the forefoot cushioning element and the heel cushioning element, and directly above the impact region of the sole.
A process for preparation of Melphalan Hydrochloride of greater than 99.5% purity, with monohydroxy Melphalan below 0.15%, dihydroxy Melphalan below 0.1% and Melphalan dimer below 0.15%, comprising: a) chlorinating a compound of formula III with thionyl chloride or POCl 3 to obtain a compound of formula IV; b) treating the compound of formula IV with Cone. HCl to hydrolyze the amino and acid protecting groups; c) adjusting the pH of the aqueous medium to 0.3 to 1.2; d) extracting into an organic solvent and isolating the pure Melphalan Hydrochloride of formula I; e) optionally, purifying the Melphalan Hydrochloride; and f) optionally, converting the Melphalan Hydrochloride into Melphalan free base. a) chlorinating a compound of formula III with thionyl chloride or POCl 3 to obtain a compound of formula IV; b) treating the compound of formula IV with Cone. HCl to hydrolyze the amino and acid protecting groups; c) adjusting the pH of the aqueous medium to 0.3 to 1.2; d) extracting into an organic solvent and isolating the pure Melphalan Hydrochloride of formula I; e) optionally, purifying the Melphalan Hydrochloride; and f) optionally, converting the Melphalan Hydrochloride into Melphalan free base.