mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor system for detecting a valve position of a filling valve , in particular in a filling plant, comprising: - a carrier arrangement configured to move at least one filling device , the at least one filling device having a filling valve for supplying a medium to a container to be filled; - a sensor module connectable with the at least one filling device comprising an energy receiving device configured to wirelessly receive and provide energy as electrical energy, an electrical energy storage to store the provided electrical energy, and a position sensor configured to detect a position of the filling valve by means of the provided electrical energy and to provide a corresponding electrical sensor variable (S); - a stationary read-out device which is configured to detect a measurement signal (M) dependent on the electrical sensor variable (S) when the at least one filling device moves past and to provide a detection signal (D) dependent on the measurement signal (M). - a carrier arrangement configured to move at least one filling device , the at least one filling device having a filling valve for supplying a medium to a container to be filled; - a sensor module connectable with the at least one filling device comprising an energy receiving device configured to wirelessly receive and provide energy as electrical energy, an electrical energy storage to store the provided electrical energy, and a position sensor configured to detect a position of the filling valve by means of the provided electrical energy and to provide a corresponding electrical sensor variable (S); - a stationary read-out device which is configured to detect a measurement signal (M) dependent on the electrical sensor variable (S) when the at least one filling device moves past and to provide a detection signal (D) dependent on the measurement signal (M).
A system for applying a sprayable alkaline or neutral cleaning composition producing reduced misting upon spraying, the system comprising: (a) a sprayer comprising a spray head connected to a spray bottle; and (b) an aqueous, ready-to-use alkaline or neutral cleaning composition contained by the spray bottle and the spray head adapted to dispense the alkaline or neutral cleaning composition; the composition comprising: (i) an effective cleaning amount of an alkalinity source and/or oxidizing source; (ii) from 0.0001 wt-% to 1 wt-% of a high molecular weight inverse emulsion polymer; (iii) at least one surfactant; and (iv) water; wherein the alkaline or neutral composition reduces the formation of airborne aerosol particles having a micron size of less than 10 when sprayed, and wherein the composition has a shear viscosity from 1 to 1000 mPas (1 to 1000 cPs), and wherein the high molecular weight inverse emulsion polymer does not increase the shear viscosity of the composition more than 10%; and wherein the composition produces a total concentration of misting of particles having a micron size of 10 or less within a breathing zone of a user of less than or equal to 60 particles/cm 3 . (a) a sprayer comprising a spray head connected to a spray bottle; and (b) an aqueous, ready-to-use alkaline or neutral cleaning composition contained by the spray bottle and the spray head adapted to dispense the alkaline or neutral cleaning composition; (i) an effective cleaning amount of an alkalinity source and/or oxidizing source; (ii) from 0.0001 wt-% to 1 wt-% of a high molecular weight inverse emulsion polymer; (iii) at least one surfactant; and (iv) water; wherein the alkaline or neutral composition reduces the formation of airborne aerosol particles having a micron size of less than 10 when sprayed, and wherein the composition has a shear viscosity from 1 to 1000 mPas (1 to 1000 cPs), and wherein the high molecular weight inverse emulsion polymer does not increase the shear viscosity of the composition more than 10%; and wherein the composition produces a total concentration of misting of particles having a micron size of 10 or less within a breathing zone of a user of less than or equal to 60 particles/cm 3 .
A blade-scissor for cleaning the membranes on the surface of the retina and inside the vitreous during vitreoretinal eye surgical operations wherein the blade-scissor comprises: a pair of legs wherein said pair of legs comprises sharp inner edges (2.1) and sharp outer edges (2.2), wherein the sharp inner edges (2.1) and the sharp outer edges (2.2) form a sharp-pointed blade when the blade-scissor is in a closed position, such that the sharp-pointed blade allows to incise a potential space between the retina and the membranes, and wherein the blade-scissor is adapted as a scissor, when the blade-scissor is in an open position such that the sharp inner edges (2.1) allow to cut remaining connections between membrane and the retina. a pair of legs wherein said pair of legs comprises sharp inner edges (2.1) and sharp outer edges (2.2),
A semiconductor device, comprising: a substrate including s semiconductor material; and a deep trench structure in the substrate, including: a deep trench at least 10 microns deep in the substrate; a dielectric liner disposed on sidewalls of the deep trench; a first layer of polysilicon disposed on the dielectric liner and extending to a bottom of the deep trench; and a second layer of polysilicon disposed on the first layer of polysilicon and extending into the deep trench, wherein dopants are distributed throughout the first layer of polysilicon and the second layer of polysilicon with an average doping density of at least 1×10 18 cm -3 , and wherein a width of the deep trench structure is 1.5 microns to 3.5 microns. a substrate including s semiconductor material; and a deep trench structure in the substrate, including: a deep trench at least 10 microns deep in the substrate; a dielectric liner disposed on sidewalls of the deep trench; a first layer of polysilicon disposed on the dielectric liner and extending to a bottom of the deep trench; and a second layer of polysilicon disposed on the first layer of polysilicon and extending into the deep trench, wherein dopants are distributed throughout the first layer of polysilicon and the second layer of polysilicon with an average doping density of at least 1×10 18 cm -3 , and wherein a width of the deep trench structure is 1.5 microns to 3.5 microns.
A power transmission device , comprising: a quill shaft having a first end and a second end ; a first shaft engaged with the first end of the quill shaft; a second shaft engaged with the second end of the quill shaft; and a raised boss on an interior surface of the quill shaft having an aperture therein, wherein the raised boss is adapted to eject a fluid through the aperture to outside of the quill shaft, wherein the fluid is oil; and, an ejector orifice at the second end of the quill shaft distal from the first shaft, wherein the ejector orifice forms an oblique angle with respect to the quill shaft, and wherein the ejector orifice is adapted to eject the oil therethrough to the outside of the quill shaft and further comprising: an injection orifice adapted to receive the oil therethrough. a quill shaft having a first end and a second end ; a first shaft engaged with the first end of the quill shaft; a second shaft engaged with the second end of the quill shaft; and a raised boss on an interior surface of the quill shaft having an aperture therein, wherein the raised boss is adapted to eject a fluid through the aperture to outside of the quill shaft, wherein the fluid is oil; and, an ejector orifice at the second end of the quill shaft distal from the first shaft, wherein the ejector orifice forms an oblique angle with respect to the quill shaft, and wherein the ejector orifice is adapted to eject the oil therethrough to the outside of the quill shaft and further comprising: an injection orifice adapted to receive the oil therethrough.
An exhaust duct assembly for conveying exhaust gases emanating from a combustion zone to atmosphere, the assembly including: an exhaust gas outlet for exhausting exhaust gas into the atmosphere; and an acoustic duct portion located upstream of the exhaust gas outlet , the acoustic duct portion having a peripheral wall defining a through-passage and including an acoustically porous structure, and the acoustic duct portion has a length (L) in a flow direction that is at least 50% of an average hydraulic diameter (D H ) of the through-passage and characterised in that said peripheral wall is constructed to promote propagation of sound there-through to atmosphere. an exhaust gas outlet for exhausting exhaust gas into the atmosphere; and an acoustic duct portion located upstream of the exhaust gas outlet , the acoustic duct portion having a peripheral wall defining a through-passage and including an acoustically porous structure, and the acoustic duct portion has a length (L) in a flow direction that is at least 50% of an average hydraulic diameter (D H ) of the through-passage and characterised in that said peripheral wall is constructed to promote propagation of sound there-through to atmosphere.
A method performed by a first network node of an Internet Protocol Multimedia Subsystem, IMS, Network, the method comprising: receiving at the first network node, a Uniform Resource Identifier, URI, in a header field in a first Session Initiation Protocol, SIP, message ; receiving at the first network node, a token in the header field in the first SIP message , the token indicative of a type of a network node in a path of the first SIP message , wherein the first SIP message is a SIP REGISTER request submitted by a user agent, UA; based on the received token, sending by the first network node, a second SIP message including the received URI, the second message conveying information about the first network node ; and receiving a third SIP message triggered by the first SIP message, wherein the third SIP message triggered by the first SIP message is a third party registration request as configured by initial Filter Criteria on a Serving Call Session Control Function, S-CSCF. receiving at the first network node, a Uniform Resource Identifier, URI, in a header field in a first Session Initiation Protocol, SIP, message ; receiving at the first network node, a token in the header field in the first SIP message , the token indicative of a type of a network node in a path of the first SIP message , wherein the first SIP message is a SIP REGISTER request submitted by a user agent, UA; based on the received token, sending by the first network node, a second SIP message including the received URI, the second message conveying information about the first network node ; and receiving a third SIP message triggered by the first SIP message, wherein the third SIP message triggered by the first SIP message is a third party registration request as configured by initial Filter Criteria on a Serving Call Session Control Function, S-CSCF.
A rate negotiation method, comprising: switching (S301), by a first device, a fiber transmission rate of a first port of the first device to a first fiber transmission rate based on a preset switching direction within a rotation period of a first fiber transmission rate set, wherein the first fiber transmission rate set is a fiber transmission rate set of the first device, and the first fiber transmission rate set comprises the first fiber transmission rate, and wherein the rotation period of the first fiber transmission rate set is the sum of time spent from a time when each fiber transmission rate in the first fiber transmission rate set is experienced once; sending (S303), by the first device, a negotiation packet to a second device adjacent to the first device through the first port of the first device within duration of the first fiber transmission rate, wherein the duration of the first fiber transmission rate is greater than or equal to a sum of duration of all fiber transmission rates before the fiber transmission rate is switched to the first fiber transmission rate and a preset negotiation time, and wherein the second device switches a fiber transmission rate based on the preset switching direction; and if a response packet is received from the second device through the first port of the first device within the duration of the first fiber transmission rate, controlling (S306), by the first device, the first port of the first device to communicate with the second device based on the first fiber transmission rate. switching (S301), by a first device, a fiber transmission rate of a first port of the first device to a first fiber transmission rate based on a preset switching direction within a rotation period of a first fiber transmission rate set, wherein the first fiber transmission rate set is a fiber transmission rate set of the first device, and the first fiber transmission rate set comprises the first fiber transmission rate, and wherein the rotation period of the first fiber transmission rate set is the sum of time spent from a time when each fiber transmission rate in the first fiber transmission rate set is experienced once; sending (S303), by the first device, a negotiation packet to a second device adjacent to the first device through the first port of the first device within duration of the first fiber transmission rate, wherein the duration of the first fiber transmission rate is greater than or equal to a sum of duration of all fiber transmission rates before the fiber transmission rate is switched to the first fiber transmission rate and a preset negotiation time, and wherein the second device switches a fiber transmission rate based on the preset switching direction; and if a response packet is received from the second device through the first port of the first device within the duration of the first fiber transmission rate, controlling (S306), by the first device, the first port of the first device to communicate with the second device based on the first fiber transmission rate.
Device for distributing solid particles for loading said solid particles in an enclosure, comprising: - a hopper for feeding solid particles, defining a set of at least one opening for discharging particles out of the hopper under the effect of gravity, - a rotating member and a drive member coupled to said rotating member for rotating said rotating member about a rotation axis (z) having a direction with, under conditions of use, a component in the direction of the gravity vector, - downstream of this set of at least one opening of the feed hopper, a set of at least one deflector element , each deflector element extending in its longitudinal direction between a first and a second end, and being carried by said rotating member at the first end thereof, characterised in that - at least one deflector element of said set is rigid and mounted so as to pivot on the rotating member at the first end thereof, - the distribution device further comprises remotely actuatable deployment means arranged to drive at least one deflector element mounted so as to pivot on the rotating member, so as to pivot it from a position of introduction into the enclosure, wherein the longitudinal direction thereof forms a first angle with the direction of the rotation axis, to a position of deflection of the particles, wherein the longitudinal direction thereof forms a second angle with the direction of the rotation axis, the second angle being strictly greater than the first angle and imposed via the deployment means independently of the rotation speed of said rotating member. - a hopper for feeding solid particles, defining a set of at least one opening for discharging particles out of the hopper under the effect of gravity, - a rotating member and a drive member coupled to said rotating member for rotating said rotating member about a rotation axis (z) having a direction with, under conditions of use, a component in the direction of the gravity vector, - downstream of this set of at least one opening of the feed hopper, a set of at least one deflector element , each deflector element extending in its longitudinal direction between a first and a second end, and being carried by said rotating member at the first end thereof, characterised in that - at least one deflector element of said set is rigid and mounted so as to pivot on the rotating member at the first end thereof, - the distribution device further comprises remotely actuatable deployment means arranged to drive at least one deflector element mounted so as to pivot on the rotating member, so as to pivot it from a position of introduction into the enclosure, wherein the longitudinal direction thereof forms a first angle with the direction of the rotation axis, to a position of deflection of the particles, wherein the longitudinal direction thereof forms a second angle with the direction of the rotation axis, the second angle being strictly greater than the first angle and imposed via the deployment means independently of the rotation speed of said rotating member.
Method for transmitting sonar data to an evaluation unit of a sonar system comprising the steps of: - Converting sound waves into hydrophone signals with several hydrophones ; - Converting the hydrophone signals into sonar data with at least one microcontroller circuit , - Transmitting the sonar data to an evaluation unit , and - Evaluation of the sonar data in the evaluation unit , the conversion of the hydrophone signals comprising digitizing and compressing the hydrophone signals , characterized in that the sonar system is the sonar system of an underwater vehicle and the compression method currently used during compression is exchanged as a function of the hydrophone signals by the microcontroller circuit as follows: - Use of a compression method in the stationary state, wherein the compression method results in a higher degree of compression than another compression method in the stationary state in which the sonar system and targets in the environment have an unchanged position relative to each other; - Use of the other compression method when the targets are moving quickly, whereby the other compression method results in a higher degree of compression than the compression method in this situation. - Converting sound waves into hydrophone signals with several hydrophones ; - Converting the hydrophone signals into sonar data with at least one microcontroller circuit , - Transmitting the sonar data to an evaluation unit , and - Evaluation of the sonar data in the evaluation unit , the conversion of the hydrophone signals comprising digitizing and compressing the hydrophone signals , characterized in that the sonar system is the sonar system of an underwater vehicle and the compression method currently used during compression is exchanged as a function of the hydrophone signals by the microcontroller circuit as follows: - Use of a compression method in the stationary state, wherein the compression method results in a higher degree of compression than another compression method in the stationary state in which the sonar system and targets in the environment have an unchanged position relative to each other; - Use of the other compression method when the targets are moving quickly, whereby the other compression method results in a higher degree of compression than the compression method in this situation. - Use of a compression method in the stationary state, wherein the compression method results in a higher degree of compression than another compression method in the stationary state in which the sonar system and targets in the environment have an unchanged position relative to each other; - Use of the other compression method when the targets are moving quickly, whereby the other compression method results in a higher degree of compression than the compression method in this situation.
A clutch assembly , comprising a sealed clutch and an adapter , the clutch being connected to the adapter and the adapter being connectable to a flywheel , the adapter being formed as a ring having a circular inner opening defined by an inner edge and including openings positioned for registration with the connection pattern of a flywheel for connecting the adapter to the flywheel , the openings of the adapter comprising at least two groups of openings for registration with the connection patterns of at least two different flywheels .
A system comprising: at least one computing device adapted to control a power generation system to adjust a temperature of an operational steam in said power generation system , the system comprising means for obtaining operational data including a temperature of components of a steam turbine in the power generation system and a set of current ambient conditions, the system controlling the power generation system to adjust a temperature of operational steam by performing actions comprising: obtaining operational data from the means for obtaining operational data , including operational data about components of a steam turbine in the power generation system , the operational data including a temperature of the components and a set of current ambient conditions at the power generation system ; the means for obtaining operational data including at least a component sensor and an ambient sensor and the actions comprising: obtaining the operational data from said sensors , determining an allowable operational steam temperature range (R1) for the steam turbine based upon the operational data ; generating emissions predictions (E1, E2, E3, OETM) for a set of temperatures within the allowable steam temperature range (R1); and controlling the power generation system to adjust the temperature of the operational steam based upon the emissions predictions (E1, E2, E3, OETM). obtaining operational data from the means for obtaining operational data , including operational data about components of a steam turbine in the power generation system , the operational data including a temperature of the components and a set of current ambient conditions at the power generation system ; the means for obtaining operational data including at least a component sensor and an ambient sensor and the actions comprising: obtaining the operational data from said sensors , determining an allowable operational steam temperature range (R1) for the steam turbine based upon the operational data ; generating emissions predictions (E1, E2, E3, OETM) for a set of temperatures within the allowable steam temperature range (R1); and controlling the power generation system to adjust the temperature of the operational steam based upon the emissions predictions (E1, E2, E3, OETM). obtaining the operational data from said sensors , determining an allowable operational steam temperature range (R1) for the steam turbine based upon the operational data ; generating emissions predictions (E1, E2, E3, OETM) for a set of temperatures within the allowable steam temperature range (R1); and controlling the power generation system to adjust the temperature of the operational steam based upon the emissions predictions (E1, E2, E3, OETM).