mhurhangee/ep-ind-claims huggingface dataset:
Method for the continuous production of an endless string of polyurethane reactive plastic material, a) at which at first the reactive components polyol and isocyanate are conveyed to a mixer in a metered manner, b) at which then the reactive components are mixed in the mixer to a reactive mixture, c) at which subsequently the reactive mixture is discharged into the environmental atmosphere and d) at which a first sheet section (B M) made from a plane, flexible material, especially a paper, foil or textile sheet, which is conveyed continuously into a transporting direction is coated with the reactive mixture, wherein the method further comprises the steps: e) Guiding of the first sheet section (B M) across a guiding element, which has a concave formed section and a flat section which follows the concave formed section in transporting direction; f) Feeding of two lateral sheet sections (B L, B R) to the first sheet section (B M), wherein the feeding occurs into the two lateral end sections of the first sheet section (B M) and wherein the first sheet section (B M) and the two lateral sheet sections (B L, B R) are formed by folding of a single sheet section made of a plane material; g) Guiding of the two lateral sheet sections (B L, B R) and the first sheet section (B M) so that a bowl-shaped structure is formed for the reception of the reactive mixture which is moved continuously in transporting direction, wherein the first sheet section (B M) is connected with the lateral sheet sections (B L, B R) in such a sealed manner so that no reactive mixture can leak into the surrounding atmosphere between the sheet sections (B M, B L, B R). a) at which at first the reactive components polyol and isocyanate are conveyed to a mixer in a metered manner, b) at which then the reactive components are mixed in the mixer to a reactive mixture, c) at which subsequently the reactive mixture is discharged into the environmental atmosphere and d) at which a first sheet section (B M) made from a plane, flexible material, especially a paper, foil or textile sheet, which is conveyed continuously into a transporting direction is coated with the reactive mixture, e) Guiding of the first sheet section (B M) across a guiding element, which has a concave formed section and a flat section which follows the concave formed section in transporting direction; f) Feeding of two lateral sheet sections (B L, B R) to the first sheet section (B M), wherein the feeding occurs into the two lateral end sections of the first sheet section (B M) and wherein the first sheet section (B M) and the two lateral sheet sections (B L, B R) are formed by folding of a single sheet section made of a plane material; g) Guiding of the two lateral sheet sections (B L, B R) and the first sheet section (B M) so that a bowl-shaped structure is formed for the reception of the reactive mixture which is moved continuously in transporting direction, wherein the first sheet section (B M) is connected with the lateral sheet sections (B L, B R) in such a sealed manner so that no reactive mixture can leak into the surrounding atmosphere between the sheet sections (B M, B L, B R).
Method for processing MgCl2 solutions comprising the steps of - providing an aqueous solution comprising 5-25 wt.% of MgCl2 and organic contaminants to an evaporation step, wherein water and organic components are evaporated, wherein the product from the evaporation step has a total content of organic components which is at most 50% of the TOC of the aqueous solution provided to the evaporation step, - withdrawing an aqueous solution with a MgCl2 concentration of 25-35 wt.% from the evaporation step and providing it to a preconcentrator where it is contacted with a HCl containing gas stream with a temperature of at least 300°C, - providing an aqueous solution with a MgCl2 concentration of 35-45 wt.% resulting from the preconcentrator to a thermohydrolysis reactor, the reactor being at a temperature of at least 300°C, - withdrawing MgO from the thermohydrolysis reactor in solid form, and withdrawing a HCl containing gas stream from the thermohydrolysis reactor, said HCl-containing gas stream having a temperature of at least 300°C, - providing the HCl-containing gas stream with a temperature of at least 300°C to the preconcentrator, - withdrawing a HCl-containing gas stream with a temperature of at most 150°C from the preconcentrator. - providing an aqueous solution comprising 5-25 wt.% of MgCl2 and organic contaminants to an evaporation step, wherein water and organic components are evaporated, wherein the product from the evaporation step has a total content of organic components which is at most 50% of the TOC of the aqueous solution provided to the evaporation step, - withdrawing an aqueous solution with a MgCl2 concentration of 25-35 wt.% from the evaporation step and providing it to a preconcentrator where it is contacted with a HCl containing gas stream with a temperature of at least 300°C, - providing an aqueous solution with a MgCl2 concentration of 35-45 wt.% resulting from the preconcentrator to a thermohydrolysis reactor, the reactor being at a temperature of at least 300°C, - withdrawing MgO from the thermohydrolysis reactor in solid form, and withdrawing a HCl containing gas stream from the thermohydrolysis reactor, said HCl-containing gas stream having a temperature of at least 300°C, - providing the HCl-containing gas stream with a temperature of at least 300°C to the preconcentrator, - withdrawing a HCl-containing gas stream with a temperature of at most 150°C from the preconcentrator.
Process for preparing propene by dehydration of 1-propanol and/or 2-propanol over heterogeneous dehydration catalysts, which comprises the following steps: (a) providing a starting material containing 1-propanol and/or 2-propanol and heating the starting material to at least 374°C and applying a pressure of at least 221 bar to the starting material; (b) transferring the starting material into at least one reactor charged with at least one heterogeneous dehydration catalyst and contacting the starting material with the dehydration catalyst while maintaining a temperature of at least 374°C and a pressure of at least 221 bar so as to give a propene-containing product; (c) depressurizing the product to not more than 47 bar and cooling the product to not more than 90°C downstream of the reactor and transferring the product into a phase separator; and (d) taking off the propene from the gas phase of the phase separator and taking off at least the water formed in the dehydration reaction from the liquid phase of the phase separator while maintaining a temperature of not more than 90°C and a pressure of not more than 47 bar in the phase separator. (a) providing a starting material containing 1-propanol and/or 2-propanol and heating the starting material to at least 374°C and applying a pressure of at least 221 bar to the starting material; (b) transferring the starting material into at least one reactor charged with at least one heterogeneous dehydration catalyst and contacting the starting material with the dehydration catalyst while maintaining a temperature of at least 374°C and a pressure of at least 221 bar so as to give a propene-containing product; (c) depressurizing the product to not more than 47 bar and cooling the product to not more than 90°C downstream of the reactor and transferring the product into a phase separator; and (d) taking off the propene from the gas phase of the phase separator and taking off at least the water formed in the dehydration reaction from the liquid phase of the phase separator while maintaining a temperature of not more than 90°C and a pressure of not more than 47 bar in the phase separator.
Vinca alkaloid dipeptide derivatives or their physiologically acceptable salt thereof, wherein the vinca alkaloid dipeptide derivative are selected from BX-CCXJ, BX-CCJ, BX-CCRB or BX-CCFN shown as follows wherein, Z-GP- represents a benzyloxycarbonylglycylprolyl group having the structure as follows
A data logging apparatus connected between a first apparatus and a second apparatus, the data logging apparatus comprising: a storage unit configured to store communications data transmitted/received between the first apparatus and the second apparatus as log data; and a determination unit configured to determine whether an event occurs in the first apparatus based on the communications data and, if it is determined that an event has occurred, to store log data within a time period from a predetermined log start time (L1, L1', L1") to a predetermined log end time (L2, L2', L2"), characterized in, that the log start time (L1, L1', L1") and log end time (L2, L2', L2") are set with respect to an event occurrence time in the storage unit as event data, and that the log start time (L1, L1', L1") and the log end time (L2, L2', L2") are set differently for different types of events. a storage unit configured to store communications data transmitted/received between the first apparatus and the second apparatus as log data; and a determination unit configured to determine whether an event occurs in the first apparatus based on the communications data and, if it is determined that an event has occurred, to store log data within a time period from a predetermined log start time (L1, L1', L1") to a predetermined log end time (L2, L2', L2"), characterized in, that the log start time (L1, L1', L1") and log end time (L2, L2', L2") are set with respect to an event occurrence time in the storage unit as event data, and that the log start time (L1, L1', L1") and the log end time (L2, L2', L2") are set differently for different types of events.
A pickup device for a harvesting machine, which is equipped with a drum that rotates while picking up crop material and is arranged transversely to the pickup direction, wherein the drum is fitted with an arrangement of non-controllable pickup tines (13, 13'), which pickup crop material lying on the ground and transfer the same to a downstream device, for the purpose of which in the shell surface (5, 6) of the drum, openings are arranged, into which in each case pickup tines (13, 13') can be inserted, wherein in the window-like opening a tine pocket (19, 19') can be inserted and can be positively fixed on the window-like opening, and at least one pickup tine (13, 13') can be inserted with its base-like end regions (15, 15') into the tine pocket (19, 19'), by means of a pressure plate (16, 16') each engaging at least in portions over the base-like end region (15, 15') of the pickup tines (13, 13') and/or the tine pocket (19, 19') and the drum can be fixed to the drum so that the tine pocket (19, 19') is fixed relative to the window-like opening in the shell surface (5, 6) of the drum and the base-like end regions (15, 15') of the pickup tines (13, 13') relative to the tine pocket (19, 19') in a non-positively clamped manner, characterised in that a screw connection (18, 36) fixes the pressure plate (16, 16') on the tine pocket (19, 19') and the drum in a non-positively clamped manner so that the base-like end region (15, 15') of the pickup tines (13, 13') is non-positively clamped in the tine pocket (19, 19') and the tine pocket (19, 19') is non-positively clamped on the drum and the pressure plate (16, 16') is pressed against the outer circumference of the drum.
A method of cooking food with steam in an automatic household oven with a cooking cavity, a heating system for heating the cooking cavity, and a steam system for introducing steam into the cooking cavity, the method comprising: receiving a user inputted cooking temperature; receiving a user inputted steam level; and implementing a preprogrammed steam cooking cycle based on the user inputted cooking temperature and the user inputted steam level, wherein the implementing a preprogrammed steam cooking cycle comprises setting a rate for increasing the temperature in the cavity to the user inputted cooking temperature, characterized in that the setting of the rate comprises setting a first heating rate for increasing the temperature in the cavity to a first temperature less than the user inputted cooking temperature, wherein the first temperature is the boiling point of water, and wherein the implementing a preprogrammed steam cooking cycle further comprises delaying steam introduction at the steam generation rate until temperature reaches the first temperature. receiving a user inputted cooking temperature; receiving a user inputted steam level; and implementing a preprogrammed steam cooking cycle based on the user inputted cooking temperature and the user inputted steam level,
A method for the removal of nitrogen oxides, volatile organic compounds and particulate matter from engine exhaust gas, comprising the steps of passing the engine exhaust gas in series through an oxidation catalyst, through a particle filter and a catalyst for selective reduction of nitrogen oxides in presence of ammonia added to the engine exhaust gas either as such or in form of a precursor thereof; at an engine exhaust gas temperature of below 250°C injecting an effluent gas containing nitrogen dioxide into the engine exhaust gas upstream the catalyst for selective reduction of nitrogen oxides; characterized in that the effluent gas containing nitrogen dioxide is provided by steps of catalytically oxidizing ammonia or a precursor thereof with an oxygen containing atmosphere to an effluent gas comprising nitrogen monoxide and oxygen in presence of an oxidation catalyst; cooling the effluent gas to ambient temperature and oxidizing the nitrogen monoxide in the cooled effluent gas to nitrogen dioxide.
A removable unit for an imaging device, comprising: a photoconductive member having respective end portions (305A, 305B); a cleaner blade extending across the photoconductive member and having an edge contacting a surface of the photoconductive member to remove toner therefrom; and a lower seal disposed adjacent the cleaner blade and extending across a length of the cleaner blade such that an opening for capturing removed toner is formed between the cleaner blade and the lower seal, the lower seal including first and second tabs integrally formed with the lower seal as a unitary piece, projecting at opposite ends thereof and extending between the cleaner blade and the photoconductive member such that longitudinal end sections of the cleaner blade are prevented by the first and second tabs from contacting the surface of the photoconductive member at the respective end portions (305A, 305B) thereof characterized by the removable unit further comprising first and second end seals disposed at the respective end portions (305A, 305B) of the photoconductive member and biased to contact the cleaner blade and the lower seal to prevent toner escape, the first and second end seals overlapping a portion of the first and second tabs, respectively. a photoconductive member having respective end portions (305A, 305B); a cleaner blade extending across the photoconductive member and having an edge contacting a surface of the photoconductive member to remove toner therefrom; and a lower seal disposed adjacent the cleaner blade and extending across a length of the cleaner blade such that an opening for capturing removed toner is formed between the cleaner blade and the lower seal, the lower seal including first and second tabs integrally formed with the lower seal as a unitary piece, projecting at opposite ends thereof and extending between the cleaner blade and the photoconductive member such that longitudinal end sections of the cleaner blade are prevented by the first and second tabs from contacting the surface of the photoconductive member at the respective end portions (305A, 305B) thereof characterized by the removable unit further comprising first and second end seals disposed at the respective end portions (305A, 305B) of the photoconductive member and biased to contact the cleaner blade and the lower seal to prevent toner escape, the first and second end seals overlapping a portion of the first and second tabs, respectively.
A latching device comprising a springy lock pin, a slider with indentation path for guiding said springy lock pin and a track for said slider, said latching device extends from at least one springy pole to one of a base and a body containing one of a structured relay and an hybrid switch for alternating the state of said slider and said at least one springy pole from latch to release and from release to latch by at least one of a pull of said armature by a voltage rated magnetic coil fed with said rated voltage pulse and a manual push of said slider via a plunger, said slider maintains one of engaging and disengaging state of at least one first contact with a single throw contact of said at least one springy pole and one of engaging dual throw contact of said at least one springy pole with said at least one first contact (T1A) and alternately engaging said dual throw contact with at least one second contact (T2A) by one of each said pull and push during each said latch and release state respectively; said springy lock pin exerts minute guiding force onto said indentation path and said at least one springy pole reversely propels and pushes said slider by exerting negligible push back force onto said slider to reversely guide the lock pin into a latch state and said slider into one of partial release and full release state thereby enabling said engaging of said contact of at least one springy pole with said one of said at least one first contact and said at least one second contact by a magnetic pull force commensurate with said rated voltage pulse needed to actuate said armature including said minute guiding force by said lock pin onto said indentation path and a negligible force to move said slider.
A communications system for communicating data to and from a user device, the system comprising infrastructure equipment forming a mobile communications network arranged to transmit data to and receive data from the user device via a wireless access interface, the user device configured to transmit data to and receive data from the infrastructure equipment, and the user device is configured to receive an indication from the infrastructure equipment of a location and duration of each of a plurality of temporal response windows for receiving response messages, the response messages being received in response to access request messages, to transmit to the infrastructure equipment an access request message for requesting access to the wireless access interface, and to receive a response message from the infrastructure equipment in response to the access request message, and the infrastructure equipment is configured to transmit the indication to the user device of the location and duration of each of the plurality of temporal response windows for receiving response messages in response to access request messages, the location and duration of each of the plurality of temporal response windows having been determined by the infrastructure equipment, to receive the access request message from the user device, to process the access request message and generate the response message, and to transmit the response message to the user device, wherein the infrastructure equipment is configured to transmit the response message within one of the plurality of temporal response windows, the plurality of temporal response windows being separated in time by response gaps, and the user device is configured to receive the response message within the one of the plurality of temporal response windows.
A platform to be installed on a loading plane of a transport vehicle, comprising a sheet-like element adapted to rest on said loading plane and having a plurality of holes arranged according to a predetermined distribution, said platform further comprising, for each hole, a relative cup-shaped element comprising a main body defining a receiving portion, in which an end part of a telescopic cargo bar can be fitted, and a peripheral portion extending transversally to the main body and adapted to define a stopping abutment upon inserting the cup-shaped element in the respective hole, wherein said holes are counter-shaped with respect to respective cup-shaped elements, characterized in that said cup-shaped elements are fitted into the respective holes so that the most external part of the cup-shaped elements is flush with the outer surface of the sheet-like element.
A method for preparing at least thirty-four grams of surfactant polymer, at a molar percentage yield of at least 50%, and with a ratio of hydrophilic to hydrophobic side chains of 1:4.3 to 1:6.5, comprising: a) providing a reactant polymer; and b) reacting the reactant polymer with: i) an alkanoyl; and ii) an oligosaccharide chain including an end group suitable for reacting with a side group of the reactant polymer; wherein the oligosaccharide chain is a neutral oligosaccharide chain with an average molecular weight of less than 7,000; wherein reacting the reactant polymer with the alkanoyl and the oligosaccharide chain is carried out in an anhydrous solvent selected from the group consisting of dimethylsulfoxide from which moisture has been removed and anhydrous dimethylsulfoxide and wherein the reactant polymer is poly(vinyl amine), the alkanoyl is N-hexanoyloxy succinimide, and the oligosaccharide chain including an end group suitable for reacting with a side group of the reactant polymer is dextran lactone. a) providing a reactant polymer; and b) reacting the reactant polymer with: i) an alkanoyl; and ii) an oligosaccharide chain including an end group suitable for reacting with a side group of the reactant polymer; wherein the oligosaccharide chain is a neutral oligosaccharide chain with an average molecular weight of less than 7,000; wherein reacting the reactant polymer with the alkanoyl and the oligosaccharide chain is carried out in an anhydrous solvent selected from the group consisting of dimethylsulfoxide from which moisture has been removed and anhydrous dimethylsulfoxide and wherein the reactant polymer is poly(vinyl amine), the alkanoyl is N-hexanoyloxy succinimide, and the oligosaccharide chain including an end group suitable for reacting with a side group of the reactant polymer is dextran lactone. i) an alkanoyl; and ii) an oligosaccharide chain including an end group suitable for reacting with a side group of the reactant polymer;