mhurhangee/ep-ind-claims huggingface dataset:
A method of regulating in a switching mode the luminous intensity of at least a solid state lamp (90; 211) connected between output terminals (50; 217, 218), comprising the steps of: generating at said output terminals (50; 217, 218) during functioning a supply voltage/current (Vbus) to the lamp (90; 211) and switching it cyclically between: - a first level (Von), adapted to turn on the lamp (90; 211) during on-time intervals; - a second level (Vpol), adapted to turn off the lamp (90; 211) during off-time intervals; - with a duty-cycle corresponding to a requested light level; providing and electrically connecting between said output terminals (50; 217, 218) an electric bipole (80, 70; 209, 210) having a monostable switch (70; 210) normally in an open position connected in series with a resistive element (80; 209) or with a diode; manually activating said monostable switch (70; 210) for electrically connecting said resistive element (80; 209) or diode to said output terminals (50; 217, 218); characterized in that said method comprises the steps of sensing a voltage value at said output terminals (50; 217, 218) during off-time intervals; generating a control signal (40; 222), for varying said duty-cycle, to correspond to at least said voltage value sensed during a present and/or previous off-time interval. generating at said output terminals (50; 217, 218) during functioning a supply voltage/current (Vbus) to the lamp (90; 211) and switching it cyclically between: - a first level (Von), adapted to turn on the lamp (90; 211) during on-time intervals; - a second level (Vpol), adapted to turn off the lamp (90; 211) during off-time intervals; - with a duty-cycle corresponding to a requested light level; providing and electrically connecting between said output terminals (50; 217, 218) an electric bipole (80, 70; 209, 210) having a monostable switch (70; 210) normally in an open position connected in series with a resistive element (80; 209) or with a diode; manually activating said monostable switch (70; 210) for electrically connecting said resistive element (80; 209) or diode to said output terminals (50; 217, 218); characterized in that said method comprises the steps of sensing a voltage value at said output terminals (50; 217, 218) during off-time intervals; generating a control signal (40; 222), for varying said duty-cycle, to correspond to at least said voltage value sensed during a present and/or previous off-time interval. - a first level (Von), adapted to turn on the lamp (90; 211) during on-time intervals; - a second level (Vpol), adapted to turn off the lamp (90; 211) during off-time intervals; - with a duty-cycle corresponding to a requested light level;
A method, comprising: configuring by a user equipment, in the following also referred to as UE, to use a first numerology for receiving a control channel (304; 1704); receiving by the UE information regarding using a second numerology for receiving or transmitting a first data channel (306; 1706) wherein the second numerology is indicated by the control channel; receiving by the UE the control channel by using the first numerology (308; 1708), and receiving or transmitting by the UE the first data channel by using the second numerology (310; 1710), characterized in that the control channel schedules the first data channel. configuring by a user equipment, in the following also referred to as UE, to use a first numerology for receiving a control channel (304; 1704); receiving by the UE information regarding using a second numerology for receiving or transmitting a first data channel (306; 1706) wherein the second numerology is indicated by the control channel; receiving by the UE the control channel by using the first numerology (308; 1708), and receiving or transmitting by the UE the first data channel by using the second numerology (310; 1710), characterized in that the control channel schedules the first data channel.
An optical connector comprising: an optical fiber comprising a glass fiber and a resin coating surrounding the glass fiber; a ferrule having a flange outside the ferrule and a through-hole inside the ferrule, the ferrule holding, in the through-hole, a portion of the glass fiber exposed from the resin coating at an end of the optical fiber; a plug frame accommodating the ferrule; and an elastic member abutting the flange and biasing the ferrule parallel to a central axis of the through-hole toward an end face side of the ferrule where an end face of the optical fiber is exposed, the optical connector being configured to connect the optical fiber to another optical fiber (F') at an end of the optical connector, wherein the flange has a single protrusion and the plug frame has a single recess that are configured to fit to each other, wherein the flange has the protrusion on an outer peripheral surface of the flange, and the plug frame has the recess in an inner peripheral surface of the plug frame such that the recess guides the protrusion parallel to the central axis of the through-hole, the plug frame having a clearance on the rear side of the recess into which the protrusion does not fit, the rear side of the recess facing away from the end of the optical connector, and wherein, when the ferrule is moved away from the end of the optical connector, the protrusion and the recess are released from each other to bring the ferrule into a floating state relative to the plug frame. an optical fiber comprising a glass fiber and a resin coating surrounding the glass fiber; a ferrule having a flange outside the ferrule and a through-hole inside the ferrule, the ferrule holding, in the through-hole, a portion of the glass fiber exposed from the resin coating at an end of the optical fiber; a plug frame accommodating the ferrule; and an elastic member abutting the flange and biasing the ferrule parallel to a central axis of the through-hole toward an end face side of the ferrule where an end face of the optical fiber is exposed, the optical connector being configured to connect the optical fiber to another optical fiber (F') at an end of the optical connector, wherein the flange has a single protrusion and the plug frame has a single recess that are configured to fit to each other, wherein the flange has the protrusion on an outer peripheral surface of the flange, and the plug frame has the recess in an inner peripheral surface of the plug frame such that the recess guides the protrusion parallel to the central axis of the through-hole, the plug frame having a clearance on the rear side of the recess into which the protrusion does not fit, the rear side of the recess facing away from the end of the optical connector, and wherein, when the ferrule is moved away from the end of the optical connector, the protrusion and the recess are released from each other to bring the ferrule into a floating state relative to the plug frame.
Method for operating an electronic brake system in a vehicle with at least two tyres on one axle, the vehicle having a centre of gravity at a height (h SP), the height (h SP) of the centre of gravity being calculated and being used as a parameter by the electronic brake system, the height (h SP) of the centre of gravity being determined iteratively and in a manner which is dependent on a reference signal, the reference signal relating to a parameter which firstly can be calculated with the use of a presumed height (h SP), and which secondly can be measured or can be derived from a measurement, the lateral acceleration (a SP) being used as a reference signal.
A method of controlling application of forces to a first portion and a second portion (192a") of a surface of an object, the method comprising: applying a first force to the first portion of the surface of the object, the first force being applied by pressurizing a bladder formed by a flexible wall; and applying a second force to the second portion (192a") of the surface of the object, the second force being applied using the bladder; and wherein: applying the second force comprises applying an external force to a permeable contact member disposed inside the bladder; applying the first force and applying the second force overlaps in time, and a magnitude of the first force is different from a magnitude of the second force; and pressurizing the bladder further comprises applying the first force to the second portion (192a") of the surface of the object, in addition to the second force. applying a first force to the first portion of the surface of the object, the first force being applied by pressurizing a bladder formed by a flexible wall; and applying a second force to the second portion (192a") of the surface of the object, the second force being applied using the bladder; and wherein: applying the second force comprises applying an external force to a permeable contact member disposed inside the bladder; applying the first force and applying the second force overlaps in time, and a magnitude of the first force is different from a magnitude of the second force; and pressurizing the bladder further comprises applying the first force to the second portion (192a") of the surface of the object, in addition to the second force. applying the second force comprises applying an external force to a permeable contact member disposed inside the bladder; applying the first force and applying the second force overlaps in time, and a magnitude of the first force is different from a magnitude of the second force; and pressurizing the bladder further comprises applying the first force to the second portion (192a") of the surface of the object, in addition to the second force.
A dispenser system for preparing samples on a mass spectrometric sample support, having a first micropump designed to press a drop of dispensing liquid out of the tip of a dispensing capillary, and a detachment device (34, 35, 38) designed to detach the drop of dispensing liquid from the tip of the dispensing capillary, comprising: at least one channel outside the dispensing capillary, ending above the tip of the dispensing capillary, characterized by a second micropump designed to press washing fluid through the at least one channel outside of the dispensing capillary to form a drop of washing fluid hanging from the end of the at least one channel and fully enclosing the dispensing capillary tip, and a light source and a light detector arranged and aligned to photometrically monitor and regulate the size of the drop of washing fluid. at least one channel outside the dispensing capillary, ending above the tip of the dispensing capillary, a second micropump designed to press washing fluid through the at least one channel outside of the dispensing capillary to form a drop of washing fluid hanging from the end of the at least one channel and fully enclosing the dispensing capillary tip, and a light source and a light detector arranged and aligned to photometrically monitor and regulate the size of the drop of washing fluid.
A method for processing handover capability, comprising: before a Radio network Resource Control, RRC, connection reestablishment is initiated in User Equipment, UE, a target base station of a target cell of the UE obtaining Closed Subscriber Group, CSG, handover capability of a serving cell from a serving base station; and during the RRC connection reestablishment, the target base station of the target cell judging whether the CSG handover capability of the target cell is consistent with the CSG handover capability of the serving cell; if consistent, the target base station sending the RRC message to the UE, wherein the RRC message does not carry the CSG handover capability of the target cell; or if not consistent, then the target base station sending the RRC message to the UE, wherein the RRC message carries the CSG handover capability of the target cell, so that the UE obtains CSG handover capability of the target cell. before a Radio network Resource Control, RRC, connection reestablishment is initiated in User Equipment, UE, a target base station of a target cell of the UE obtaining Closed Subscriber Group, CSG, handover capability of a serving cell from a serving base station; and during the RRC connection reestablishment, the target base station of the target cell judging whether the CSG handover capability of the target cell is consistent with the CSG handover capability of the serving cell; if consistent, the target base station sending the RRC message to the UE, wherein the RRC message does not carry the CSG handover capability of the target cell; or if not consistent, then the target base station sending the RRC message to the UE, wherein the RRC message carries the CSG handover capability of the target cell, so that the UE obtains CSG handover capability of the target cell.
A method for preparing a product comprising: encapsulating a first encapsulated product in the presence of an amino acid source and a reducing sugar to form a second encapsulated product, whereby Maillard reaction products are formed, and wherein the first encapsulated product comprises an encapsulant of a labile compound. encapsulating a first encapsulated product in the presence of an amino acid source and a reducing sugar to form a second encapsulated product, whereby Maillard reaction products are formed, and wherein the first encapsulated product comprises an encapsulant of a labile compound.
Airbag module comprising - a housing having a housing floor and a housing sidewall, said housing floor and said housing sidewall defining an accommodation space being open at an deployment opening opposite the housing floor, - an airbag package, wherein at least a part of said airbag package is accommodated in said accommodation space, - a cover having a roof and a cover sidewall, the roof having a central part spanning over the deployment opening, the cover sidewall extending from the roof to a floor-side end, wherein the cover sidewall comprises a cover sidewall main portion having an inner surface and an outer surface and a plurality of ribs (40, 50) each protruding from the cover sidewall main portion and extending from a roof-side end to a roof-remote end, characterized in that the plurality of ribs (40, 50) comprises a first kind of ribs having a roof proximal section protruding from the inner surface of the cover sidewall main portion and a roof distal section protruding from the outer surface of the cover sidewall main portion, the cover sidewall main portion of the section of the cover sidewall which shows the first kind of ribs has a roof proximal part and roof distal part, wherein the roof proximal part is outward relative to the roof distal part, such that the roof proximal part and roof distal part are offset to one another, and the total thickness of the section of the cover sidewall showing the first kind of ribs is constant along the height of the ribs of the first kind. - a housing having a housing floor and a housing sidewall, said housing floor and said housing sidewall defining an accommodation space being open at an deployment opening opposite the housing floor, - an airbag package, wherein at least a part of said airbag package is accommodated in said accommodation space, - a cover having a roof and a cover sidewall, the roof having a central part spanning over the deployment opening, the cover sidewall extending from the roof to a floor-side end,
Method for communication between at least one client (UA-C) and at least one server (UA-S) of a client/server system using the OPC UA communication protocol, via a communication network which is characterized in that it permits requests from one client (UA-C) only and subsequent responses from one server (UA-S) only, characterized in that the communication network comprises a Keep Alive mechanism, i.e. a data connection existing between the server (UA-S) and the client (UA-C) is ended if no data packets are transmitted in a Keep Alive time period, wherein on expiry of the Keep Alive time period, if information to be transmitted is present on the server (US-S), the client (UA-C) receives a first trigger message from the server (UA-S), in response to which it sends its request to the server (UA-S).
The use of KLRG2, SEQ ID NO:85, SEQ ID NO:86, or a different isoform having sequence identity of at least 80% to SEQ ID NO:85 or SEQ ID NO:86, as a tumor marker for in vitro detection of ovary cancer.
Process for the production of treated pulp comprising the steps of: i. providing a fibre source material; ii. subjecting the fibre source material to pre-hydrolysis; iii. subjecting the pre-hydrolysed fibre source material to alkaline chemical pulping process, preferably kraft pulping, to obtain an alkaline pulp; iv. optionally adjusting the pH of the obtained pulp to above pH 9; v. subjecting the alkaline pulp having a pH over 9 to a bleaching sequence comprising contacting the pulp with ozone in alkaline conditions to obtain a treated pulp. i. providing a fibre source material; ii. subjecting the fibre source material to pre-hydrolysis; iii. subjecting the pre-hydrolysed fibre source material to alkaline chemical pulping process, preferably kraft pulping, to obtain an alkaline pulp; iv. optionally adjusting the pH of the obtained pulp to above pH 9; v. subjecting the alkaline pulp having a pH over 9 to a bleaching sequence comprising contacting the pulp with ozone in alkaline conditions to obtain a treated pulp.
A stabilizer clamp for a vehicle stabilizer, comprising an inner region for receiving a vehicle stabilizer and at least two at least partially opposite end regions (4, 4', 4") for closing the stabilizer clamp, wherein the one of the at least two at least partially opposite end regions (4, 4', 4") has at least one connecting element (5, 5', 5", 5′′′), and the other of the at least two at least partially opposite end regions (4, 4', 4") has at least one connecting element receptacle (6, 6', 6", 6′′′) for producing at least a form-fitting connection between the at least one connecting element (5, 5', 5", 5′′′) and the at least one connecting element receptacle (6, 6', 6", 6′′′), wherein the at least one connecting element (5, 5', 5", 5′′′) is at least one rivet, and the at least one connecting element receptacle (6, 6', 6", 6′′′) is at least one rivet hole, and the at least form-fitting connection which can be produced is at least one riveted connection; wherein the at least one rivet is formed in one piece with the stabilizer clamp, characterized in that the at least one rivet is solid in form. wherein the at least one connecting element (5, 5', 5", 5′′′) is at least one rivet, and the at least one connecting element receptacle (6, 6', 6", 6′′′) is at least one rivet hole, and the at least form-fitting connection which can be produced is at least one riveted connection; wherein the at least one rivet is formed in one piece with the stabilizer clamp, characterized in that the at least one rivet is solid in form.
A separator comprising scaly particles wherein their flat surfaces are oriented in the extending direction of the surface of the separator, the scaly particles being arranged in layers in the thickness direction of the separator, and fibrous materials are interposed among the scaly particles, wherein the fibrous materials are inorganic materials, wherein the scaly particles are inorganic particles, wherein the flat surface direction of the scaly particles is oriented within a range of ± 5 degrees based on the extending direction of the surface of the separator, characterised in that the average particle diameter of the scaly particles is 15 μm or more and 200 μm or less.
Hydrogel of gelatin cross-linked with bisacrylamides of primary or secondary amines which are selected from N,N'-methylene-bisacrylamide, N,N'-ethylene-bisacrylamide, bisacryloylpiperazine, bisacryloylcystamine and N,N'-polyoxyalkylen-bisacrylamide, wherein said hydrogel is obtainable by a Michael-type addition reaction process via the nucleophilic addition of free amino groups in gelatin and the α,β unsaturated carbonyl group in the selected bisacrylamide, said process comprising the following steps: (a) reaction of gelatin with bisacrylamide in a water medium; (b) purification of the product obtained in step (a); (c) optional drying or lyophilisation. (a) reaction of gelatin with bisacrylamide in a water medium; (b) purification of the product obtained in step (a); (c) optional drying or lyophilisation.
A sub-surface completion unit, SCU, system configured to be disposed in a target zone of a wellbore of a well to provide completion operations in the target zone, the SCU system comprising: a SCU body configured to be disposed in a target zone of a wellbore of a well; a SCU wireless transceiver coupled to the SCU body and configured to communicate with a surface control system of the well by way of wireless communication with a down-hole wireless transceiver disposed in the wellbore of the well; one or more SCU anchoring seals coupled to the SCU body and configured to be positioned in an un-deployed position and a deployed position, the un-deployed position of the one or more SCU anchoring seals enabling the SCU to pass through production tubing disposed in the wellbore of the well, and the deployed position of the one or more SCU anchoring seals providing a seal against a wall of the target zone of the open-holed portion of the wellbore to provide zonal isolation between regions in the wellbore; and one or more SCU centralizers coupled to the SCU body and configured to be positioned in an un-deployed position and a deployed position, the un-deployed position of the one or more SCU centralizers enabling the SCU to pass through the production tubing disposed in the wellbore of the well, and the deployed position of the one or more SCU centralizers positioning the SCU in the target zone of the open-holed portion of the wellbore, the SCU system configured to pass through the production tubing disposed in the wellbore of the well. a SCU body configured to be disposed in a target zone of a wellbore of a well; a SCU wireless transceiver coupled to the SCU body and configured to communicate with a surface control system of the well by way of wireless communication with a down-hole wireless transceiver disposed in the wellbore of the well; one or more SCU anchoring seals coupled to the SCU body and configured to be positioned in an un-deployed position and a deployed position, the un-deployed position of the one or more SCU anchoring seals enabling the SCU to pass through production tubing disposed in the wellbore of the well, and the deployed position of the one or more SCU anchoring seals providing a seal against a wall of the target zone of the open-holed portion of the wellbore to provide zonal isolation between regions in the wellbore; and one or more SCU centralizers coupled to the SCU body and configured to be positioned in an un-deployed position and a deployed position, the un-deployed position of the one or more SCU centralizers enabling the SCU to pass through the production tubing disposed in the wellbore of the well, and the deployed position of the one or more SCU centralizers positioning the SCU in the target zone of the open-holed portion of the wellbore, the SCU system configured to pass through the production tubing disposed in the wellbore of the well.
A pharmaceutical composition comprising a compound of formula or a pharmaceutically acceptable salt thereof; and a lubricant selected from non-metallic lubricant, wherein said non-metallic salt lubricant is selected from the group consisting of fatty acid esters, fatty acids, oils, polyethylene glycols (PEGs), starch, talc, and a mixture thereof.