mhurhangee/ep-ind-claims huggingface dataset:
A method for dynamic addressing of n slave units of a master-slave systems including a master unit and a number of n slave units, wherein the slave units are connected to the master unit via a bus system and can receive at least one broadcast command from the master unit via the bus line of the bus system, wherein the master-slave system is configured such that the master unit can send respective broadcast commands to the slave units, on the one hand, for activation, and on the other hand, for performing the dynamic addressing process of slave addresses (A 1,..., A i,..., A n), and wherein the slave units each comprise an address input and an address output and are serially connected via an address line separate from the bus line, comprising the following steps: a. Activation of the dynamic addressing process is performed using a broadcast command to all slave units; b. An identical start address is assigned to all slave units via a bus line; c. Performing the addressing process by increasing the input-side address value of the respective slave address (A i) of the ith slave unit by the value "1" as soon as it receives a signal at the address input from the adjacent (i-1)th slave unit and adjusts its current address value in that the address value at the address input is increased by the value "1", respectively; d. After increasing the slave address (A i) of the ith slave unit, a signal at the address output is conducted to the address input of the adjacent (i+1)th slave unit, and the dynamic addressing process is repeated until the last address change was performed at the nth slave unit, wherein the slave unit at the nth position changes its address value including its start addressing n times. a. Activation of the dynamic addressing process is performed using a broadcast command to all slave units; b. An identical start address is assigned to all slave units via a bus line; c. Performing the addressing process by increasing the input-side address value of the respective slave address (A i) of the ith slave unit by the value "1" as soon as it receives a signal at the address input from the adjacent (i-1)th slave unit and adjusts its current address value in that the address value at the address input is increased by the value "1", respectively; d. After increasing the slave address (A i) of the ith slave unit, a signal at the address output is conducted to the address input of the adjacent (i+1)th slave unit, and the dynamic addressing process is repeated until the last address change was performed at the nth slave unit, wherein the slave unit at the nth position changes its address value including its start addressing n times.
A method for controlling a vapour compression system, the vapour compression system comprising at least one compressor (2, 16), a heat rejecting heat exchanger, a high pressure expansion device (4, 15, 17), a receiver, an evaporator expansion device, an evaporator and a gas bypass valve, arranged in a refrigerant path, the vapour compression system further comprising one or more pressure sensors (10, 12, 13) for measuring a refrigerant pressure at selected positions along the refrigerant path and one or more temperature sensors (11, 14) for measuring a refrigerant temperature at selected positions along the refrigerant path, characterised in that the method comprises the steps of: - estimating a mass flow of gaseous refrigerant along a part of the refrigerant path, based on measurements performed by some of the pressure sensors (10, 12, 13) and temperature sensors (11, 14), - deriving a refrigerant pressure or a refrigerant temperature at a selected position of a pressure sensor (10, 12, 13) or temperature sensor (11, 14) along the refrigerant path, based on the estimated mass flow, and - registering that one of the pressure sensor(s) (10, 12, 13) or one of the temperature sensor(s) (11, 14) is malfunctioning, and wherein the derived refrigerant pressure or refrigerant temperature corresponds to pressure measurements or temperature measurements performed by the malfunctioning sensor (10, 11, 12, 13, 14). - estimating a mass flow of gaseous refrigerant along a part of the refrigerant path, based on measurements performed by some of the pressure sensors (10, 12, 13) and temperature sensors (11, 14), - deriving a refrigerant pressure or a refrigerant temperature at a selected position of a pressure sensor (10, 12, 13) or temperature sensor (11, 14) along the refrigerant path, based on the estimated mass flow, and - registering that one of the pressure sensor(s) (10, 12, 13) or one of the temperature sensor(s) (11, 14) is malfunctioning, and wherein the derived refrigerant pressure or refrigerant temperature corresponds to pressure measurements or temperature measurements performed by the malfunctioning sensor (10, 11, 12, 13, 14).
Method of injection fixing an article to be fixed, using an anchor sleeve (5, 5a), which has an anchoring region (9, 9a) and a transverse-force sleeve (11, 11a), using an anchor rod (6, 6a) having a thread, and using a nut as abutment for the article to be fixed, mounting being carried out as push-through mounting and comprising at least the following steps: - drilling a hole (12, 27) in the article to be fixed and in the anchoring substrate; - matching the length of the anchor sleeve (5, 5a) to the thickness of the article to be fixed by breaking off or separating off part of the transverse-force sleeve (11, 11 a); - introducing the anchor sleeve (5, 5a) into the hole drilled in the anchoring substrate through the hole drilled in the article to be fixed; - injecting mortar into the anchoring region (9, 9a) of the anchor sleeve (5, 5a); - introducing the anchor rod (6, 6a) into the anchor sleeve (5, 5a); and - screwing the nut up on a thread of the anchor rod (6, 6a). - drilling a hole (12, 27) in the article to be fixed and in the anchoring substrate; - matching the length of the anchor sleeve (5, 5a) to the thickness of the article to be fixed by breaking off or separating off part of the transverse-force sleeve (11, 11 a); - introducing the anchor sleeve (5, 5a) into the hole drilled in the anchoring substrate through the hole drilled in the article to be fixed; - injecting mortar into the anchoring region (9, 9a) of the anchor sleeve (5, 5a); - introducing the anchor rod (6, 6a) into the anchor sleeve (5, 5a); and - screwing the nut up on a thread of the anchor rod (6, 6a).
Out-of-plane microneedles manufacturing process comprising th e simultaneous creation of a network of a temporary protective suspended structure made of hats above each one of the microneedles under formation, said process characterized in that the temporary suspended structure also comprises bridges which link the hats together during the manufacturing process and comprising the following steps: - when creating the hats, also creating the bridges between the hats, wherein the bridges are at least partially curved; - maintaining the bridges during the steps of structuration of the microneedles comprising a sequence of isotropic and anisotropic etches, - removing the bridges, together with the hats at the end of the process leaving the microneedle pattern. - when creating the hats, also creating the bridges between the hats, wherein the bridges are at least partially curved; - maintaining the bridges during the steps of structuration of the microneedles comprising a sequence of isotropic and anisotropic etches, - removing the bridges, together with the hats at the end of the process leaving the microneedle pattern.
A process for forming a porous polyparaxylylene article comprising: depositing a polyparaxylylene film on a substrate to form a PPX composite structure; said substrate is selected from the group consisting of a polytetrafluoroethylene (PTFE) tape, and a PTFE membrane; and expanding said PPX composite structure to form a porous PPX article having a node and fibril structure. depositing a polyparaxylylene film on a substrate to form a PPX composite structure; said substrate is selected from the group consisting of a polytetrafluoroethylene (PTFE) tape, and a PTFE membrane; and expanding said PPX composite structure to form a porous PPX article having a node and fibril structure.
A turbomachine, particularly a gas turbine, with a housing and a guide vane ring whose outer shrouding band is subdivided by separating joints into segments, wherein the outer shrouding band is secured to the housing by means of a first fastening element for absorbing axial forces and a second fastening element, which is independent of the first fastening element, for absorbing circumferential forces, wherein the first and the second fastening element (24, 30) provide a play in the radial direction for the segments of the outer shrouding band, wherein the first fastening element for absorbing axial forces has an annular shape and forms a form-fitting connection with the housing, wherein the form-fitting connection is formed by a mounting extension on the housing and a groove in the annular fastening element, which extends in the circumferential direction, for absorbing axial forces, and wherein the fastening element for absorbing axial forces is arranged, as seen in the direction of force, behind an axial force-transmitting component of the outer shrouding band, characterized in that the axial force is transmitted via a plurality of mutually separated contact surfaces between the guide vane ring and the fastening element for absorbing axial forces.
A method for adjusting an ejection position of an auxiliary nozzle in an air jet loom which includes a plurality of auxiliary nozzles including a plurality of sub-nozzles arranged along a weft insertion path and which performs a weaving operation that involves a change in a weaving condition, during a weaving operation, based on a plurality of preset weaving conditions, the method including the step of setting at least one of the auxiliary nozzles as an adjustment target and allowing an ejection position of the auxiliary nozzle set as the adjustment target to be adjusted by an actuator (M1, M2), the method characterized by comprising the steps of: setting a database in advance, the database including a set value of the ejection position corresponding to each of the preset weaving conditions, the set value being set in association with each of the set_weaving conditions; and selecting, in response to the change in the weaving condition during the weaving operation, the set value corresponding to the weaving condition after the change from the database and driving the actuator (M1, M2) in accordance with the selected set value, and adjusting the ejection position of the auxiliary nozzle set as the adjustment target. setting a database in advance, the database including a set value of the ejection position corresponding to each of the preset weaving conditions, the set value being set in association with each of the set_weaving conditions; and selecting, in response to the change in the weaving condition during the weaving operation, the set value corresponding to the weaving condition after the change from the database and driving the actuator (M1, M2) in accordance with the selected set value, and adjusting the ejection position of the auxiliary nozzle set as the adjustment target.
An IC tag including a magnetic field type tag unit in which an IC chip and a coil antenna being electrically connected to the IC chip are embedded inside a hard resin material, the IC tag further comprising: a flexible film made of resin; and an auxiliary antenna (122, 122a) formed on the film, wherein the magnetic field type tag unit being fixed at a position that enables communication by electromagnetic coupling between the coil antenna and the auxiliary antenna (122,122a), characterized in that the magnetic field type tag unit is fixed to the film by an adhesive made of rubber glue with elasticity so as to conform to a deformation of the IC tag, a flexible film made of resin; and an auxiliary antenna (122, 122a) formed on the film, wherein the magnetic field type tag unit being fixed at a position that enables communication by electromagnetic coupling between the coil antenna and the auxiliary antenna (122,122a), characterized in that the magnetic field type tag unit is fixed to the film by an adhesive made of rubber glue with elasticity so as to conform to a deformation of the IC tag,
An attachment device intended to secure equipment with an underrun protection device of a vehicle that includes at least one horizontal bar, the attachment device including at least one hook for hanging the equipment on the bar so as to support said equipment, the attachment device including a securing means which, in a holding position, is intended to interfere with a lower part of the protection device so as to prevent an upward movement of the attachment device relative to the protection device, the securing means being able to adopt a released position in which it no longer interferes with the protection device, thus allowing the removal of the attachment device, characterised in that the securing means includes a rod pivoting around a vertical axis, the rod being able to be positioned substantially parallel to the protection device in the released position and perpendicular to the protection device in the holding position.
A method of flushing port tables at bridge nodes in an Ethernet network, the Ethernet network comprising a Root Bridge node and a plurality of bridge nodes, each bridge node storing a plurality of port tables in a memory, the method being characterised by: in the event of a change in the topology of the Ethernet network, identifying, from the plurality of bridge nodes, a ring of bridge nodes affected by the change in the topology, the ring of bridge nodes comprising a subset of the plurality of bridge nodes and including a branching bridge node providing a connection to the Root Bridge node; and flushing port tables only on the bridge nodes on the ring, the flushing comprising: receiving a signal instructing the bridge node to flush a portion of port tables selected from the plurality of port tables, the selected port tables including any of a root port table and a designated port table; flushing the selected portion of port tables from the memory; and forwarding the signal to a further bridge node in the Ethernet network. in the event of a change in the topology of the Ethernet network, identifying, from the plurality of bridge nodes, a ring of bridge nodes affected by the change in the topology, the ring of bridge nodes comprising a subset of the plurality of bridge nodes and including a branching bridge node providing a connection to the Root Bridge node; and flushing port tables only on the bridge nodes on the ring, the flushing comprising: receiving a signal instructing the bridge node to flush a portion of port tables selected from the plurality of port tables, the selected port tables including any of a root port table and a designated port table; flushing the selected portion of port tables from the memory; and forwarding the signal to a further bridge node in the Ethernet network. receiving a signal instructing the bridge node to flush a portion of port tables selected from the plurality of port tables, the selected port tables including any of a root port table and a designated port table; flushing the selected portion of port tables from the memory; and forwarding the signal to a further bridge node in the Ethernet network.
A method of regenerating an ion exchange column containing a nitrate-selective ion exchange material loaded with nitrate ions, in which the loaded ion exchange column is subjected to a regeneration sequence comprising: passing through the column a dilute brine solution; collecting the solution effluent containing at least one anion other than nitrate; passing through the column a second, and optionally a third, brine solution, the second, and if present the third, solution having a higher concentration than the first; and collecting the second, and optional third, solution effluent containing nitrate ions, passing water through the column and collecting the effluent wash water; and using the effluent wash water in a further regeneration cycle, wherein the dilute brine solution is a 0.2 to 2.0% w/v solution of sodium chloride or potassium chloride, wherein the second brine solution is a 6 to 15% w/v solution of sodium chloride or potassium chloride, and wherein the third brine solution, if present, is a 6 to 15% w/v solution of sodium chloride or potassium chloride. passing through the column a dilute brine solution; collecting the solution effluent containing at least one anion other than nitrate; passing through the column a second, and optionally a third, brine solution, the second, and if present the third, solution having a higher concentration than the first; and collecting the second, and optional third, solution effluent containing nitrate ions, passing water through the column and collecting the effluent wash water; and using the effluent wash water in a further regeneration cycle,
Composition for treating fumes comprising: - more than 80% by weight of hydrated lime in the form of particles of calcium hydroxide having a BET specific surface area equal to or greater than 25 m 2 /g and a BJH total pore volume equal to or greater than 0.1 cm 3 /g; - at least one additive selected from the group consisting of NaCl, Na 2 SO 4, CaCl 2 and mixtures thereof, the ratio by weight additive / hydrated lime in the form of particles of calcium hydroxide having a BET specific surface area equal to or greater than 25 m 2 /g and a BJH total pore volume equal to or greater than 0.1 cm 3 /g being comprised between 1:100 and 1:10, preferably between 1:50 and 1:20; - from 1 to 10% by weight, preferably from 1 to 5% by weight of at least one sodium compound selected from the group consisting of NaOH, Na 2 CO 3, NaHCO 3 and mixtures thereof, and - less than 5% by weight, advantageously less than 3% by weight, preferably less than 1% by weight of water. - more than 80% by weight of hydrated lime in the form of particles of calcium hydroxide having a BET specific surface area equal to or greater than 25 m 2 /g and a BJH total pore volume equal to or greater than 0.1 cm 3 /g; - at least one additive selected from the group consisting of NaCl, Na 2 SO 4, CaCl 2 and mixtures thereof, the ratio by weight additive / hydrated lime in the form of particles of calcium hydroxide having a BET specific surface area equal to or greater than 25 m 2 /g and a BJH total pore volume equal to or greater than 0.1 cm 3 /g being comprised between 1:100 and 1:10, preferably between 1:50 and 1:20; - from 1 to 10% by weight, preferably from 1 to 5% by weight of at least one sodium compound selected from the group consisting of NaOH, Na 2 CO 3, NaHCO 3 and mixtures thereof, and - less than 5% by weight, advantageously less than 3% by weight, preferably less than 1% by weight of water.
Method for the treatment of industrial water systems characterized by the following process steps: A: a. a water-dissolved inorganic salt Me-X, wherein Me can be = NH 4 and/or Na and/or K, and X = Br, Cl, SO 4, NO 3, in amounts from 0.01 to 30 wt.-%, and b. a non-oxidizing biocide in amounts of 10-50 wt.-%, are mixed with each other, wherein the ratio of component b. to component a. ranges between 0.1 to 40, and the ratio of component a. to component b. ranges between 5 to 50. B: this aqueous solution of components a. and b. and the oxidizing agent, component c, in amounts of 10-40 wt.-% are directly, separately dosed to the water system to be treated, wherein the ratio of the component mixture (a. and b.) to component c ranges from 0.5-2, the component a. is selected from sodium bromide, sodium chloride, potassium chloride, potassium bromide, ammonium sulfate, ammonium bromide, ammonium chloride, ammonium nitrate, and mixtures thereof, the component b. is 2-bromo-2-nitropropane-1,3-diole, and the method is free from solubilizers and rheological aids. A: a. a water-dissolved inorganic salt Me-X, wherein Me can be = NH 4 and/or Na and/or K, and X = Br, Cl, SO 4, NO 3, in amounts from 0.01 to 30 wt.-%, and b. a non-oxidizing biocide in amounts of 10-50 wt.-%, are mixed with each other, wherein the ratio of component b. to component a. ranges between 0.1 to 40, and the ratio of component a. to component b. ranges between 5 to 50. a. a water-dissolved inorganic salt Me-X, wherein Me can be = NH 4 and/or Na and/or K, and X = Br, Cl, SO 4, NO 3, in amounts from 0.01 to 30 wt.-%, and b. a non-oxidizing biocide in amounts of 10-50 wt.-%, B: this aqueous solution of components a. and b. and the oxidizing agent, component c, in amounts of 10-40 wt.-% are directly, separately dosed to the water system to be treated, wherein the ratio of the component mixture (a. and b.) to component c ranges from 0.5-2, the component a. is selected from sodium bromide, sodium chloride, potassium chloride, potassium bromide, ammonium sulfate, ammonium bromide, ammonium chloride, ammonium nitrate, and mixtures thereof, the component b. is 2-bromo-2-nitropropane-1,3-diole, and the method is free from solubilizers and rheological aids.
Process for producing composite material components in which a first workpiece in tape form is fixed on a second workpiece, the workpieces (1, 2) being pressed against each other at the connecting location by means of a pressure-exerting unit (8, 27) that has an elastically flexible pressure-exerting pad (4, 23), is formed as a roller and is moved in a rolling manner in relation to the second workpiece, the workpiece in tape form being heated on its side facing away from the pressure-exerting unit (8, 27) by means of laser radiation and the pressure-exerting pad being protected from the direct influence of the laser radiation in such a way that the temperature of the pressure-exerting pad (4, 23) is not increased above a value that is critical for the pressing process, characterized in that the pressure-exerting pad (4, 23) is made such that at least a region of the pressure-exerting pad (4, 23) that is exposed to the laser radiation during use is translucent for the laser radiation that is used and has for the laser radiation that is used an absorption coefficient of at most 0.5, preferably at most 0.3.
A thermal heat storage system comprising: a storage tank, said storage tank holding a material for thermal storage and a heat transfer fluid; a heat injection system that uses vapour under de-pressurized conditions for heat transfer, and is coupled to an intake on the storage tank, and comprising a subfloor; a receiver; a chamber below the storage tank and fluidically separated from the storage tank by the subfloor; a down-tube fluidically coupled to the chamber and configured to convey a vapour generated in the receiver to the chamber under pressure of the vapour formed in the receiver; a pump to return condensate formed from condensing of the vapour from the chamber to the receiver; and a heat recovery system coupled to an output on the storage tank, the heat recovery system using vapor under de-pressurized conditions for heat transfer. a storage tank, said storage tank holding a material for thermal storage and a heat transfer fluid; a heat injection system that uses vapour under de-pressurized conditions for heat transfer, and is coupled to an intake on the storage tank, and comprising a subfloor; a receiver; a chamber below the storage tank and fluidically separated from the storage tank by the subfloor; a down-tube fluidically coupled to the chamber and configured to convey a vapour generated in the receiver to the chamber under pressure of the vapour formed in the receiver; a pump to return condensate formed from condensing of the vapour from the chamber to the receiver; and a heat recovery system coupled to an output on the storage tank, the heat recovery system using vapor under de-pressurized conditions for heat transfer.