mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a test stand arrangement comprising a test specimen and comprising a loading machine which is connected to the test specimen by a connecting shaft, wherein the test stand arrangement corresponds to a supercritical arrangement, characterized in that an estimated value (T E,est) is determined for the internal torque (T E) of the test specimen, a damping signal (T Damp) being determined from the estimated value (T E,est), while taking into account a natural frequency (f 0) to be damped and a delay (Delay), and said damping signal being fed back into the control loop.
A capacitor comprising: a capacitor element having internal electrodes and dielectric layers, the internal electrodes and the dielectric layers being alternately laminated; a first electrode layer formed on an edge surface of the capacitor element and connected to an internal electrode (20-1, 20-2) of the internal electrodes; and a second electrode layer formed into a mesh shape or a dot shape on the first electrode layer; characterized in that: the first electrode layer has an exposed surface portion that is an oxidation treatment layer. a capacitor element having internal electrodes and dielectric layers, the internal electrodes and the dielectric layers being alternately laminated; a first electrode layer formed on an edge surface of the capacitor element and connected to an internal electrode (20-1, 20-2) of the internal electrodes; and a second electrode layer formed into a mesh shape or a dot shape on the first electrode layer; characterized in that: the first electrode layer has an exposed surface portion that is an oxidation treatment layer.
A refrigerator comprising: a main body having a storage compartment; an inner case forming an inner space of the main body; a cover plate (21, 22, 23, 61, 71, 80, 81, 82, 83, 90, 91, 92, 93) installed inside the inner case to form an exterior of the storage compartment and formed of a ceramic material; a cover panel (24, 62, 72) disposed inside the inner case; a fastening member (27, 74) configured to connect between the cover panel (24, 62, 72) and a fixing member (26, 73) while the fixing member (26, 73) is fixed to the cover plate (21, 22, 23, 61, 71, 80, 81, 82, 83, 90, 91, 92, 93) to couple the cover panel (24, 62, 72) to the cover plate (21, 22, 23, 61, 71, 80, 81, 82, 83, 90, 91, 92, 93); and characterized in that the fixing member (26, 73) is fixed to one surface of the cover plate (21, 22, 23, 61, 71, 80, 81, 82, 83, 90, 91, 92, 93) by an adhesive. a main body having a storage compartment; an inner case forming an inner space of the main body; a cover plate (21, 22, 23, 61, 71, 80, 81, 82, 83, 90, 91, 92, 93) installed inside the inner case to form an exterior of the storage compartment and formed of a ceramic material; a cover panel (24, 62, 72) disposed inside the inner case; a fastening member (27, 74) configured to connect between the cover panel (24, 62, 72) and a fixing member (26, 73) while the fixing member (26, 73) is fixed to the cover plate (21, 22, 23, 61, 71, 80, 81, 82, 83, 90, 91, 92, 93) to couple the cover panel (24, 62, 72) to the cover plate (21, 22, 23, 61, 71, 80, 81, 82, 83, 90, 91, 92, 93); and characterized in that the fixing member (26, 73) is fixed to one surface of the cover plate (21, 22, 23, 61, 71, 80, 81, 82, 83, 90, 91, 92, 93) by an adhesive.
A method for transmitting a signal for a vehicle-to-everything, V2X, transmission in a wireless communication system, the method performed by a user equipment, UE, and comprising: performing a first group transmission including a first transmission and a first retransmission; and performing a second group transmission including a second transmission and a second retransmission, wherein each of the first group transmission and the second group transmission is the V2X transmission based on a new radio access technology, NR, and wherein a first resource reservation period for the first group transmission and the second group transmission is equal to half of a second resource reservation period of another UE performing a retransmission up to two times, wherein the UE performs the V2X transmission based on the NR and the another UE performs another V2X transmission based on a long term evolution, LTE, wherein the UE performs the V2X transmission on a same frequency band which the another UE performs the another V2X transmission on, wherein the second transmission is performed after an elapse of a first time gap after performing the first retransmission, wherein the second retransmission is performed after an elapse of a second time gap after performing the second transmission, and wherein sidelink control information, SCI, being transmitted via the first transmission and the first retransmission includes time gap information notifying the first time gap and the second time gap. performing a first group transmission including a first transmission and a first retransmission; and performing a second group transmission including a second transmission and a second retransmission, wherein each of the first group transmission and the second group transmission is the V2X transmission based on a new radio access technology, NR, and wherein a first resource reservation period for the first group transmission and the second group transmission is equal to half of a second resource reservation period of another UE performing a retransmission up to two times, wherein the UE performs the V2X transmission based on the NR and the another UE performs another V2X transmission based on a long term evolution, LTE, wherein the UE performs the V2X transmission on a same frequency band which the another UE performs the another V2X transmission on, wherein the second transmission is performed after an elapse of a first time gap after performing the first retransmission, wherein the second retransmission is performed after an elapse of a second time gap after performing the second transmission, and wherein sidelink control information, SCI, being transmitted via the first transmission and the first retransmission includes time gap information notifying the first time gap and the second time gap.
A fishing rod, comprising: a molded rod section having a surface, and a fitting (9, 10A, 10B, 10C) placed on the surface of the molded rod section, the fitting having a securing portion, the fitting being secured to the surface with a sheet member (20, 30) made of a thermosetting resin that is wound on the securing portion of the fitting and heat-cured, wherein the sheet member includes a first sheet member made of a thermosetting resin and a second sheet member made of a thermosetting resin, the first sheet member being placed or wound on the rod section, the second sheet member being wound over the first sheet member and the securing portion of the fitting placed on the first sheet member, and said fishing rod being characterized in that the thermosetting resin of the first sheet member and the thermosetting resin of the second sheet member have different curing temperatures from each other. a molded rod section having a surface, and a fitting (9, 10A, 10B, 10C) placed on the surface of the molded rod section, the fitting having a securing portion, the fitting being secured to the surface with a sheet member (20, 30) made of a thermosetting resin that is wound on the securing portion of the fitting and heat-cured, wherein the sheet member includes a first sheet member made of a thermosetting resin and a second sheet member made of a thermosetting resin, the first sheet member being placed or wound on the rod section, the second sheet member being wound over the first sheet member and the securing portion of the fitting placed on the first sheet member, and said fishing rod being characterized in that the thermosetting resin of the first sheet member and the thermosetting resin of the second sheet member have different curing temperatures from each other.
A computer implemented method for providing a test system for testing a network control system, characterized in that the network control system is configured to automatically analyze alerts and other incidents from a telecommunication network and to perform automatic actions and failure correction in the telecommunication network based on this information, the method comprising performing in the test system: interacting with the network control system over a first interface of the test system, wherein the first interface is configured to emulate operation of a control interface of the telecommunication network; monitoring over the first interface, whether a command associated with a network device of the telecommunication network is received from the network control system; based on the received command, providing, over the first interface, to the network control system, one or more responses; monitoring one or more next actions of the network control system; and evaluating operation of the network control system based on the received command or lack of received command and/or based on the one or more next actions or lack of next actions. interacting with the network control system over a first interface of the test system, wherein the first interface is configured to emulate operation of a control interface of the telecommunication network; monitoring over the first interface, whether a command associated with a network device of the telecommunication network is received from the network control system; based on the received command, providing, over the first interface, to the network control system, one or more responses; monitoring one or more next actions of the network control system; and evaluating operation of the network control system based on the received command or lack of received command and/or based on the one or more next actions or lack of next actions.
A chopping assembly for a forage harvester for processing a stream of crop, wherein the chopping assembly comprises a chopper drum with elongated chopper blades disposed thereon, as well as at least one shear bar which cooperates with the chopper blades, wherein a detection assembly is provided for detecting a state of wear of a chopping assembly, wherein the detection assembly has at least one magnet assembly which has a magnetic excitation assembly and a flux-conducting device magnetically coupled thereto, wherein the magnet assembly provides a pole assembly which forms at least one magnetic pole (21 - 28) with a pole surface for conducting magnetic flux outwards, wherein at least a portion of the chopper blade passes the pole assembly during a rotation of the chopper drum so that each chopper blade which is passing the pole assembly forms an air gap configuration with at least one air gap (30 - 37) with respect to the pole assembly, and as a result, at least one magnetic circuit (38 - 43) energised by the excitation assembly is closed via the respective chopper blade, wherein the detection assembly has a measuring assembly and an evaluation unit, wherein the measuring assembly detects at least one magnetic variable concerning the magnetic flux in at least one of the magnetic circuits (38 - 43) energised by the excitation assembly and wherein the evaluation unit determines the state of wear of the respective chopper blade from the at least one detected variable, characterized in that at least a portion of the magnetic flux generated by the magnetic excitation assembly is guided longitudinally in the chopper blade via at least one longitudinal section (L 1 - L 6) of the chopper blade which is passing the pole assembly, wherein the pole assembly forms at least two magnetic poles (21 - 28) which are mutually spaced along the chopper blade which is passing the pole assembly, each magnetic pole forming a respective air gap (30 - 37) of the air gap configuration together with the chopper blade and between which the magnetic flux generated by the magnetic excitation assembly is guided longitudinally, so that the state of wear of the chopper blade in the longitudinal section (L 1 - L 6) between the two poles (21 - 28) can be determined.
A starting/end post of a line or corner post of a fence based on fence posts and fencing wire, including a first metal fence post, intended to be planted in the ground in a substantially vertical position, and a reinforcing element, said reinforcing element including a second metal fence post, intended to be positioned obliquely between said first fence post and the ground, and a connecting element, intended to connect a first end of said second fence post, placed on the ground, to said first fence post, characterized in that said first fence post has a U- or W-shaped section, in that said second fence post is a fence post usable as a fence post for a line of fence and has a T- or Y-shaped section, and in that said connecting element is made from fencing wire.
Fluidic rotary drive for a vehicle door with a) a working cylinder and b) an actuating piston which is guided in the working cylinder for an axial actuating movement in an axial actuating direction and c) a coupling mechanism which transfers the axial actuating movement of the actuating piston into a rotary movement of a drive means of the rotary drive for the vehicle door, characterised in that d) in a first actuating region of the actuating piston there is a rotation of the drive means for rotating the vehicle door and e) in a second actuating region of the actuating piston there is an axial actuating movement of the drive means for providing a locking of the vehicle door, f) a sensor being integrated into the fluidic rotary drive for the vehicle door which senses the axial actuating movement of the actuating piston and g) a control unit of the rotary drive for the vehicle door comprising control logic which analyses the measurement signal of the sensor for determining if the actuating piston is in the first or second actuating region. a) a working cylinder and b) an actuating piston which is guided in the working cylinder for an axial actuating movement in an axial actuating direction and c) a coupling mechanism which transfers the axial actuating movement of the actuating piston into a rotary movement of a drive means of the rotary drive for the vehicle door, d) in a first actuating region of the actuating piston there is a rotation of the drive means for rotating the vehicle door and e) in a second actuating region of the actuating piston there is an axial actuating movement of the drive means for providing a locking of the vehicle door, f) a sensor being integrated into the fluidic rotary drive for the vehicle door which senses the axial actuating movement of the actuating piston and g) a control unit of the rotary drive for the vehicle door comprising control logic which analyses the measurement signal of the sensor for determining if the actuating piston is in the first or second actuating region.
A method of reducing carryover comprising: providing a pipette; wherein the pipette includes a liquid backing; aspirating a first air segment into the pipette below the liquid backing; aspirating a scavenger segment into the pipette below the first air segment; wherein the scavenger segment comprises a non-ionic surfactant, characterized in that the method further comprises steps of: aspirating a second air segment into the pipette below the scavenger segment; aspirating a specimen or reagent into the pipette below the second air segment, and dispensing the specimen or reagent into a reaction vessel; wherein the air separator segments separate various liquid segments in the pipette so that the specimen or reagent and scavenger segment are separated by an air separator, so that when dispensing specimen or reagent into a reaction vessel, none of the scavenger segment is dispensed into the reaction vessel. providing a pipette; wherein the pipette includes a liquid backing; aspirating a first air segment into the pipette below the liquid backing; aspirating a scavenger segment into the pipette below the first air segment; aspirating a second air segment into the pipette below the scavenger segment; aspirating a specimen or reagent into the pipette below the second air segment, and dispensing the specimen or reagent into a reaction vessel; wherein the air separator segments separate various liquid segments in the pipette so that the specimen or reagent and scavenger segment are separated by an air separator, so that when dispensing specimen or reagent into a reaction vessel, none of the scavenger segment is dispensed into the reaction vessel.
A wireless packet communication station comprising means for: Searching an idle wireless channel by carrier sense among a plurality of wireless channels; characterized by transmitting wireless packets having equal packet time lengths simultaneously by using the idle sensed wireless channel and a mandatory channel using MIMO, only when the mandatory channel is idle, the mandatory channel being always used for transmission and having the highest priority among wireless channels that have a plurality of priorities. Searching an idle wireless channel by carrier sense among a plurality of wireless channels; characterized by transmitting wireless packets having equal packet time lengths simultaneously by using the idle sensed wireless channel and a mandatory channel using MIMO, only when the mandatory channel is idle, the mandatory channel being always used for transmission and having the highest priority among wireless channels that have a plurality of priorities.
A method for a well injection program comprising the steps: (a) injection testing an existing injection well (12(a)), the injection testing comprising: injecting a fluid into the injection well; varying the flow rate of injected fluid; and measuring the pressure, temperature and flow rate at the injection well as the flow rate is varied to provide measured data; (b) determining one or more thermal stress characteristics of the well by inputting the measured data to a first model, the first model describing the thermal stresses around the well on the measured data; (c) determining injection parameters by inputting the one or more thermal stress characteristics into a second model, the second model is reservoir modelling; and (d) carrying out well injection using the well injection parameters for the well as an injection well in an overall field development. (a) injection testing an existing injection well (12(a)), the injection testing comprising: injecting a fluid into the injection well; varying the flow rate of injected fluid; and measuring the pressure, temperature and flow rate at the injection well as the flow rate is varied to provide measured data; injecting a fluid into the injection well; varying the flow rate of injected fluid; and measuring the pressure, temperature and flow rate at the injection well as the flow rate is varied to provide measured data; (b) determining one or more thermal stress characteristics of the well by inputting the measured data to a first model, the first model describing the thermal stresses around the well on the measured data; (c) determining injection parameters by inputting the one or more thermal stress characteristics into a second model, the second model is reservoir modelling; and (d) carrying out well injection using the well injection parameters for the well as an injection well in an overall field development.
A process for the preparation of a bovine milk derived phosphatidylserine source of natural composition comprising concentrating ordinary cream for butter oil production by centrifugation to a cream containing about 80 % of fat, where after the resulting emulsion is broken in a homogenizer by high shearing to obtain a butter milk together with butter oil, the serum phase is collected, fat separated and treated by ultrafiltration including diafiltration, and finally spray-dried.
Method for ascertaining a movement of an object, which rotates around an axis and thereby assumes a mechanical angle Θ m, wherein at least one signal equation is used, which describes the rotating movement, wherein at least one error parameter is defined for the at least one signal equation, wherein a mechanical period of the rotating movement is divided into a number of electrical signal periods (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16), such that the mechanical angle Θ m corresponds to one of these signal periods, together with an electrical angle Θ e, wherein for each electrical signal period (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16) of the mechanical period at least one value is individually determined for the at least one error parameter, wherein for each electrical signal period (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16) a mean value is established as a compensation parameter from the at least one value for the at least one error parameter, characterised in that, a compensation parameter for an i-th electrical signal period (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16) is interpolated with a compensation parameter of an adjacent b-th electrical signal period (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16), wherein a weighting factor G i (Θ e) is used for each compensation parameter for the i-th electrical signal period (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16), which is dependent on the electrical angle Θ e within the i-th electrical signal period (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16).
A method for producing rigid polyurethane foam composite elements, comprising at least one outer layer and a rigid polyurethane foam layer, by mixing (a) polyisocyanates with (b) compounds having at least two hydrogen atoms reactive with isocyanate groups, (c) optionally flame retardant(s), (d) blowing agent, comprising at least one aliphatic or cycloaliphatic hydrocarbon having 4 to 8 carbon atoms, (e) catalyst, and (f) optionally auxiliaries and adjuvants to form a reaction mixture, applying the reaction mixture to the outer layer, and curing it to form the rigid polyurethane foam, where component (b) comprises at least one polyether alcohol, prepared by alkoxylation of a starter or of a starter mixture having an average functionality of 4 to 8 and a hydroxyl number of 300 to 600 mg KOH/g, at least one aromatic Mannich condensate, which may have been alkoxylated, preparable by reaction of an aromatic compound which on an aromatic ring carries at least one hydroxyl group and/or at least one group -NHR, where R is any organic radical or is hydrogen, one or more aldehydes and/or ketones, and one or more primary or secondary amines, at least one aromatic polyester polyol, and optionally chain extenders and/or crosslinking agents, the fraction of aromatic Mannich condensate being greater than 5 wt% to less than 20 wt%, based on the total weight of component (b) and the isocyanate index on mixing of components (a) to (f) is 160 to 230. (a) polyisocyanates with (b) compounds having at least two hydrogen atoms reactive with isocyanate groups, (c) optionally flame retardant(s), (d) blowing agent, comprising at least one aliphatic or cycloaliphatic hydrocarbon having 4 to 8 carbon atoms, (e) catalyst, and (f) optionally auxiliaries and adjuvants to form a reaction mixture, applying the reaction mixture to the outer layer, and curing it to form the rigid polyurethane foam, where component (b) comprises at least one polyether alcohol, prepared by alkoxylation of a starter or of a starter mixture having an average functionality of 4 to 8 and a hydroxyl number of 300 to 600 mg KOH/g, at least one aromatic Mannich condensate, which may have been alkoxylated, preparable by reaction of an aromatic compound which on an aromatic ring carries at least one hydroxyl group and/or at least one group -NHR, where R is any organic radical or is hydrogen, one or more aldehydes and/or ketones, and one or more primary or secondary amines, at least one aromatic polyester polyol, and optionally chain extenders and/or crosslinking agents, the fraction of aromatic Mannich condensate being greater than 5 wt% to less than 20 wt%, based on the total weight of component (b) and the isocyanate index on mixing of components (a) to (f) is 160 to 230.