mhurhangee/ep-ind-claims huggingface dataset:
Method for transmitting at least one software module to a subscriber terminal (16, 18, 19) in a radio communication system, in which the transmission of the at least one software module to the subscriber terminal (16, 18, 19) is temporally controlled in such a manner that the at least one software module is transmitted to the subscriber terminal (16, 18, 19) immediately or at a later time on the basis of at least one stored rule which can be changed by a subscriber (User A, User B, User C) and/or the subscriber terminal (16, 18, 19).
A medical preparation comprising: a. T cells genetically modified to express a chimeric antigen receptor, b. IL2 or a polynucleotide encoding IL2, and c. a further cytokine or a polynucleotide encoding the further cytokine, wherein the further cytokine is selected from the group consisting of IL7 and IL21. a. T cells genetically modified to express a chimeric antigen receptor, b. IL2 or a polynucleotide encoding IL2, and c. a further cytokine or a polynucleotide encoding the further cytokine, wherein the further cytokine is selected from the group consisting of IL7 and IL21.
An electric motor rotor in which a rotor magnet and a shaft are integrated by a resin section and roller bearings (21a, 21b) are arranged on the shaft, characterised in that an insulating sleeve is provided between the shaft and the roller bearings, wherein the insulating sleeve has a brim section protruding into the resin section and covered with the resin section, the insulating sleeve being fixed integrally with the resin section.
Process for preparing compounds of the formula in which R 1 and R 2 represent methyl and R 3 represents chlorine, characterized in that in a first step compounds of the formula in which R 1, R 2 and R 3 have the definitions given above, are reacted with magnesium in the presence of a solvent to give compounds of the formula, in which R 1, R 2 and R 3 have the definitions given above; in a second step the compounds of the formula are reacted with compounds of the formula in which R 4 and R 5 represent methyl, to give a compound of the formula in which R 1, R 2, R 3, R 4 and R 5 have the definitions given above; in a third step the compounds of the formula are reacted by hydrolysis under acidic conditions to give compounds of the formula in which R 1, R 2 and R 3 have the definitions given above; in a fourth step compounds of the formula are hydrogenated to give compounds of the formula in which R 1, R 2 and R 3 have the definitions given above; in the presence of a catalyst; in a fifth step compounds of the formula are reacted to give compounds of the formula (VIII) in which R 1, R 2 and R 3 have the definitions given above and Y represents chlorine or bromine; in a sixth step the compounds of the formula (VIII) are reacted with a cyanide of the formula MCN, in which M represents sodium, to give compounds of the formula in which R 1, R 2 and R 3 have the definitions given above; in a seventh step the compounds of the formula are hydrolysed under acidic or basic conditions to give compounds of the formula in which R 1, R 2 and R 3 have the definitions given above. R 1 and R 2 represent methyl and R 3 represents chlorine, characterized in that in a first step compounds of the formula in which R 1, R 2 and R 3 have the definitions given above, are reacted with magnesium in the presence of a solvent to give compounds of the formula, in which R 1, R 2 and R 3 have the definitions given above; in a second step the compounds of the formula are reacted with compounds of the formula in which R 4 and R 5 represent methyl, to give a compound of the formula in which R 1, R 2, R 3, R 4 and R 5 have the definitions given above; in a third step the compounds of the formula are reacted by hydrolysis under acidic conditions to give compounds of the formula in which R 1, R 2 and R 3 have the definitions given above; in a fourth step compounds of the formula are hydrogenated to give compounds of the formula in which R 1, R 2 and R 3 have the definitions given above; in the presence of a catalyst; in a fifth step compounds of the formula are reacted to give compounds of the formula (VIII) in which R 1, R 2 and R 3 have the definitions given above and Y represents chlorine or bromine; Y represents chlorine or bromine; in a sixth step the compounds of the formula (VIII) are reacted with a cyanide of the formula MCN, in which M represents sodium, M represents sodium, to give compounds of the formula in which R 1, R 2 and R 3 have the definitions given above; in a seventh step the compounds of the formula are hydrolysed under acidic or basic conditions to give compounds of the formula in which R 1, R 2 and R 3 have the definitions given above.
A front-load laundry appliance including a decorative panel assembly for a laundry appliance, comprising: a structural panel defining a top panel of a cabinet; an adapter panel coupled to the structural panel and forming a first attachment therebetween, wherein the adapter panel extends over at least a substantial portion of an upper surface of the structural panel; and a decorative panel selectively coupled to the adapter panel and forming a second attachment therebetween, wherein the decorative panel extends over a top surface of the adapter panel, and wherein the decorative panel is selectively removable from the adapter panel, and wherein the first attachment is separated from the second attachment. a structural panel defining a top panel of a cabinet; an adapter panel coupled to the structural panel and forming a first attachment therebetween, wherein the adapter panel extends over at least a substantial portion of an upper surface of the structural panel; and a decorative panel selectively coupled to the adapter panel and forming a second attachment therebetween, wherein the decorative panel extends over a top surface of the adapter panel, and wherein the decorative panel is selectively removable from the adapter panel, and wherein the first attachment is separated from the second attachment.
An agricultural harvesting head for an agricultural harvester, where the agricultural harvester has a feederhouse extending forward from the front of the agricultural harvester and wherein the feederhouse is configured to support the agricultural harvesting head on forward end thereof, the agricultural harvesting head comprising: an elongate mainframe extending laterally and perpendicular to a direction of travel of the agricultural harvester when harvesting crops, wherein the elongate mainframe has a first central aperture through which cut crop material is passed; an adapter frame disposed behind the first central aperture, wherein the adapter frame is configured to be removably coupled to and supported on the front end of the feederhouse and wherein the adapter frame has a second central aperture configured to receive the cut crop from the first central aperture and to communicate the cut crop into a front opening of the feederhouse; a plurality of links coupling the mainframe and the adapter frame to permit the mainframe to move up and down with respect to the adapter frame through a plurality of relative positions between the adapter frame and the mainframe; and a constant force assembly configured to apply a constant lifting force to the elongate mainframe as it travels through the plurality relative positions, wherein the constant force assembly is coupled to the adapter frame and to the mainframe and communicates a lifting force from the adapter frame to the mainframe and the constant force assembly comprises at least one spring having a first end coupled to the adapter frame, characterized in that a second end of the spring is coupled to a first end of a scissor link assembly. an elongate mainframe extending laterally and perpendicular to a direction of travel of the agricultural harvester when harvesting crops, wherein the elongate mainframe has a first central aperture through which cut crop material is passed; an adapter frame disposed behind the first central aperture, wherein the adapter frame is configured to be removably coupled to and supported on the front end of the feederhouse and wherein the adapter frame has a second central aperture configured to receive the cut crop from the first central aperture and to communicate the cut crop into a front opening of the feederhouse; a plurality of links coupling the mainframe and the adapter frame to permit the mainframe to move up and down with respect to the adapter frame through a plurality of relative positions between the adapter frame and the mainframe; and a constant force assembly configured to apply a constant lifting force to the elongate mainframe as it travels through the plurality relative positions, wherein the constant force assembly is coupled to the adapter frame and to the mainframe and communicates a lifting force from the adapter frame to the mainframe and the constant force assembly comprises at least one spring having a first end coupled to the adapter frame, characterized in that a second end of the spring is coupled to a first end of a scissor link assembly.
Electrical machine comprising a stator and a rotor, whereby either the stator or the rotor is provided with at least one permanent magnet, wherein a shielding means shielding the at least one permanent magnet from interactions with external magnetic fields is adjacently disposed to the permanent magnet on the stator or rotor supporting the at least one permanent magnet, wherein at least one shielding means is disposed at two lateral surfaces of the at least one permanent magnet and overlaps the circle-segment- or half sinus wave shaped permanent magnet on the side directly opposed to the air-gap, wherein there is a form-fit between the surface of the shielding means being directly attached to the permanent magnet and the surface of the permanent magnet being in contact with the shielding means at each of two opposite lateral surfaces of the permanent magnet, wherein the respective portion of the at least one permanent magnet being uncovered and directly opposed to the air-gap is not covered by the shielding means, wherein the shielding means is built of an electrically conductive and magnetically non-conductive material.
A spool valve, comprising: a body; an outer secondary spool coaxially located within a bore of the body and linearly displaceable relative to the body; an inner primary spool coaxially located within a bore of the secondary spool and linearly displaceable relative to the secondary spool and the body; and a plurality of motor assemblies, each motor assembly comprising: a motor configured to provide selective displacement of the primary spool; the spool valve characterized in that it comprises a clutch configured to selectively couple the motor to the primary spool; and a motor position sensor configured to determine the position of the respective motor; wherein each clutch is configured to selectively decouple its associated motor from the primary spool in response to the associated motor position sensor detecting a motor fault. a body; an outer secondary spool coaxially located within a bore of the body and linearly displaceable relative to the body; an inner primary spool coaxially located within a bore of the secondary spool and linearly displaceable relative to the secondary spool and the body; and a plurality of motor assemblies, each motor assembly comprising: a motor configured to provide selective displacement of the primary spool; the spool valve characterized in that it comprises a clutch configured to selectively couple the motor to the primary spool; and a motor position sensor configured to determine the position of the respective motor; wherein each clutch is configured to selectively decouple its associated motor from the primary spool in response to the associated motor position sensor detecting a motor fault. a motor configured to provide selective displacement of the primary spool; the spool valve characterized in that it comprises a clutch configured to selectively couple the motor to the primary spool; and a motor position sensor configured to determine the position of the respective motor; wherein each clutch is configured to selectively decouple its associated motor from the primary spool in response to the associated motor position sensor detecting a motor fault.
A tool pan, being connected with a driving element and being driven to rotate by the driving element, the tool pan comprising: a plurality of homocentric annular structures, each of the homocentric annular structures having a plurality of rubbing zones and a plurality of ramps; wherein each of the ramps extends along a normal direction of the tool pan and ramps up gradually towards a fringe of the corresponding tool pan; each of the ramps nearer the fringe of the tool pan has a width that is smaller than which at positions away from the fringe of the tool pan; each of the homocentric annular structures has the plurality of ramps disposed between every two adjacent of the rubbing zones of the same homocentric annular structure; and each of the rubbing zones has a front end facing towards a direction of rotation, and the front end has a chamfer. a plurality of homocentric annular structures, each of the homocentric annular structures having a plurality of rubbing zones and a plurality of ramps; wherein each of the ramps extends along a normal direction of the tool pan and ramps up gradually towards a fringe of the corresponding tool pan; each of the ramps nearer the fringe of the tool pan has a width that is smaller than which at positions away from the fringe of the tool pan; each of the homocentric annular structures has the plurality of ramps disposed between every two adjacent of the rubbing zones of the same homocentric annular structure; and each of the rubbing zones has a front end facing towards a direction of rotation, and the front end has a chamfer.
A composition for forming an organic film, which comprises a polymer having a repeating unit represented by the following general formula whose terminal group is a group represented by either of the following general formulae or, and an organic solvent: wherein, W 1 represents a tetravalent organic group, and W 2 represents a divalent organic group: wherein, R 1 represents any of the groups represented by the following formula, and two or more of R 1 s may be used in combination. a polymer having a repeating unit represented by the following general formula whose terminal group is a group represented by either of the following general formulae or, and an organic solvent: wherein, W 1 represents a tetravalent organic group, and W 2 represents a divalent organic group: wherein, R 1 represents any of the groups represented by the following formula, and two or more of R 1 s may be used in combination.
Transparent, peelable polyester film comprising at least one biaxially oriented polyester film (= base layer) and at least one peelable outer layer coated thereon offline, where the outer layer is composed of at least 85 % by weight of a polyester of aromatic and aliphatic dicarboxylic acids and aliphatic diols, and where the arithmetic mean value of the absolute ordinate values S a of the outer layer is less than 300 nm and the reduced peak height S pk of the outer layer is less than 700 nm, and where the outer layer comprises particles with a median particle diameter d 50 of 2.0 to 8 μm at a concentration of 0.1 to 10 % by weight, and where the Sa and Spk parameters are determined in accordance with the calculation methods defined in the standard ISO 25178-2.
A system (200, 400, 500, 1200), comprising: a printing unit (202, 1202a, 1202b, 1202c, 1202d) configured to print an image (418, 518a, 518b, 706) of a material on an intermediate substrate (208, 306, 416, 516, 608, 704, 804, 904, 1002, 1104); a sample building unit (220, 1224) configured to receive the intermediate substrate (208, 306, 416, 516, 608, 704, 804, 904, 1002, 1104) having the image (418, 518a, 518b, 706) of the material printed thereon and to transfer the image (418, 518a, 518b, 706) from the intermediate substrate (208, 306, 416, 516, 608, 704, 804, 904, 1002, 1104) to a sample (216, 310, 324, 432, 532, 910) located in a vacuum chamber (312, 434, 534, 914) of the sample building unit (220, 1224); and an ultra violet light source configured to cure portions of the image (418, 518a, 518b, 706) of the material printed on the intermediate substrate (208, 306, 416, 516, 608, 704, 804, 904, 1002, 1104) during movement of the intermediate substrate (208, 306, 416, 516, 608, 704, 804, 904, 1002, 1104) having the image (418, 518a, 518b, 706) of the material printed thereon from the printing unit (202, 1202a, 1202b, 1202c, 1202d) to the sample building unit (220, 1224). a printing unit (202, 1202a, 1202b, 1202c, 1202d) configured to print an image (418, 518a, 518b, 706) of a material on an intermediate substrate (208, 306, 416, 516, 608, 704, 804, 904, 1002, 1104); a sample building unit (220, 1224) configured to receive the intermediate substrate (208, 306, 416, 516, 608, 704, 804, 904, 1002, 1104) having the image (418, 518a, 518b, 706) of the material printed thereon and to transfer the image (418, 518a, 518b, 706) from the intermediate substrate (208, 306, 416, 516, 608, 704, 804, 904, 1002, 1104) to a sample (216, 310, 324, 432, 532, 910) located in a vacuum chamber (312, 434, 534, 914) of the sample building unit (220, 1224); and an ultra violet light source configured to cure portions of the image (418, 518a, 518b, 706) of the material printed on the intermediate substrate (208, 306, 416, 516, 608, 704, 804, 904, 1002, 1104) during movement of the intermediate substrate (208, 306, 416, 516, 608, 704, 804, 904, 1002, 1104) having the image (418, 518a, 518b, 706) of the material printed thereon from the printing unit (202, 1202a, 1202b, 1202c, 1202d) to the sample building unit (220, 1224).
Battery monitoring system having at least one central unit and battery or cell units which can be fitted to batteries or secondary cells, each battery or cell unit having sensors for capturing physical variables in or at the battery or secondary cell, and the central unit and the battery or cell units having communication interfaces via which at least the central unit can communicate with the battery or cell units or vice versa, the battery or cell units being suitable and set up for obtaining electrical energy required for the function from the battery or secondary cell to be monitored, the central unit being able to control the transmission power of transmitters of the battery or cell units, characterized in that the central unit can control the transmission power of the transmitters of the battery or cell units for the purpose of adjusting or compensating the state of charge of the secondary cells or batteries of a battery arrangement, as a result of which the charging and discharging of the batteries or secondary cells can be influenced in order to charge batteries or secondary cells, which are assigned the battery or cell units whose transmitters consume more energy than the transmitters of other battery or cell units, more slowly or to discharge them more quickly than if there were no influence on the transmission power of the transmitters.
A filter cleaning device comprising a housing, a spindle for rotating a filter, a nozzle installed in a wall of the housing with a nozzle opening which is directed at the filter when a filter is present inside the housing, and a support which is threaded and disposed on the spindle and can be rotated around the spindle and when rotated is displaced along the spindle, characterised in that the spindle and the support are inside the housing and the filter can be mounted on the support, and in that the nozzle opening, seen in axial direction of the spindle, is directed beside the spindle, so that, as a result of the force of water jet out of the nozzle, the filter rotates around the spindle.
Network entity for supporting registration of an external network entity, and/or of a service provided by the external network entity, at another network entity, wherein the network entity is configured to: obtain a first registration information from the external network entity, wherein the first registration information includes a service profile, create a clone of the service based on the first registration information, wherein the clone of the service is a service interface towards the other network entity and also towards the external network entity, provide a second registration information to the another network entity, wherein the second registration information includes a clone service profile of the clone of the service, and wherein the clone service profile is based on the service profile included in the first registration information and/or on profile information of the network entity, obtain a first registration response from the another network entity, and provide a second registration response to the external network entity, wherein the network entity and the another network entity are comprised in a network, and the external network entity is external to the network. obtain a first registration information from the external network entity, wherein the first registration information includes a service profile, create a clone of the service based on the first registration information, wherein the clone of the service is a service interface towards the other network entity and also towards the external network entity, provide a second registration information to the another network entity, wherein the second registration information includes a clone service profile of the clone of the service, and wherein the clone service profile is based on the service profile included in the first registration information and/or on profile information of the network entity, obtain a first registration response from the another network entity, and provide a second registration response to the external network entity, wherein the network entity and the another network entity are comprised in a network, and the external network entity is external to the network.
Construction material comprising a perforated sheet of metal and on at least one side of the perforated sheet of metal a thermoplastic layer, wherein said thermoplastic layer has i) a modulus of elasticity as measured according to ISO 527 of 0.6-2.0 MPa, preferably 0.8-1.8 MPa, ii) a shore A hardness as measured according to ISO 7619-1 in the range of 25-65, preferably in the range of 35-50, and iii) an elongation at break as measured according to ISO 527 of 250-400 %, preferably 275-375 %. i) a modulus of elasticity as measured according to ISO 527 of 0.6-2.0 MPa, preferably 0.8-1.8 MPa, ii) a shore A hardness as measured according to ISO 7619-1 in the range of 25-65, preferably in the range of 35-50, and iii) an elongation at break as measured according to ISO 527 of 250-400 %, preferably 275-375 %.