mhurhangee/ep-ind-claims huggingface dataset:
A culture medium for the proliferation of pluripotent stem cells while maintaining an undifferentiated state under feeder-free conditions, wherein the medium comprises (i) albumin, (ii) at least one selected from the group consisting of ethanolamine, ethanolamine analogs and pharmaceutically acceptable salts thereof, wherein the concentration of said at least one selected from the group consisting of ethanolamine, ethanolamine analogs and pharmaceutically acceptable salts thereof in the medium is 11 μM - 200 μM, wherein the medium is free of β-mercaptoethanol or contains β-mercaptoethanol at a concentration of not more than 5 μM, wherein the concentration of albumin in the medium is 0.1 g/l - 20 g/l, and wherein the amount of fatty acid carried by the albumin in the medium is not more than 7 mg/g. (i) albumin, (ii) at least one selected from the group consisting of ethanolamine, ethanolamine analogs and pharmaceutically acceptable salts thereof, wherein the concentration of said at least one selected from the group consisting of ethanolamine, ethanolamine analogs and pharmaceutically acceptable salts thereof in the medium is 11 μM - 200 μM,
An azeotrope-like composition comprising 1,1,2,3,3-pentafluoropropene and any one of 1,1,1,2-tetrafluoropropene or the Z-isomer of 1,1,1,2,3-pentafluoropropene.
Longitudinal adjuster, in particular for a vehicle seat, comprising two rail pairs which are arranged at a distance from one another and are each constructed from a seat-mounted top rail and a structure-mounted bottom rail, comprising a first locking element and at least one second locking element which are held on the top rail and, in a locking position, block a movement of the top rail relative to the bottom rail, wherein the bottom rail has apertures and the top rail has slot-like openings, wherein the first locking element and the at least one second locking element, on the two opposite longitudinal sides thereof, have tooth-like projections which are guided in the slot-like openings and which, in the locking position, pass through both the slot-like openings and also the apertures, wherein only the first locking element, in the locking position, only partially engages into the apertures for eliminating play of the rail pair, while the at least one second locking element, in the locking position, is always fully inserted into the apertures, characterized in that the outer dimension of the respective locking elements (16a, 16b) is configured differently.
A device configured to assess and display a difference in vectors of forces exercised by a pair of arms or legs of exercising persons, like patients suffering from hemiparesis or sportsmen, comprising a housing with two means for a participation with a pair of limbs - arms or legs in an individual exercise, wherein said means are arranged on bearings within the housing, further comprising a microcontroller, and optionally a computer with the network connection for connection to an expert rehabilitation center, characterized in that each means is connected with a means for the measurement of forces that appear as a result of various activity of a limb exercised on the means, an accelerometer, a gyroscope and a magnetometer for the determination of a position and an orientation of the device in space wherein all data from said means, said accelerometer, said gyroscope and said magnetometer are gathered by said microcontroller and evaluated with models and algorithms, and the data are continuously displayed on a display, a monitor or a TV screen, notifying the exercising person on exercising status and suggesting next steps.
A barrier layer device, comprising: a biocompatible mesh structure; and a barrier layer formed on at least a portion of the mesh structure; wherein the barrier layer is formed of a non-polymeric cross-linked gel derived from an oil composition comprising fatty acids, glycerides, and combinations thereof covalently cross-linked by ester bonds in a substantially random configuration. a biocompatible mesh structure; and a barrier layer formed on at least a portion of the mesh structure; wherein the barrier layer is formed of a non-polymeric cross-linked gel derived from an oil composition comprising fatty acids, glycerides, and combinations thereof covalently cross-linked by ester bonds in a substantially random configuration.
A method for transmitting wireless power in a wireless power transmitting unit, PTU, the method comprising: receiving first information related to a maximum voltage from each of a plurality of power receiving units (110-1 - 110-n), PRUs; transmitting a first level of power for charging to the plurality of PRUs (110-1 - 110-n); in response to transmitting the first level of power, receiving second information related to a measured voltage in each of the plurality of PRUs (110-1 - 110-n); identifying a voltage ratio of each of the plurality of PRUs (110-1 - 110-n) based on the first information and the second information, wherein the voltage ratio is said measured voltage relative to said maximum voltage of each of the plurality of PRUs (110-1 - 110-n); determining a PRU (110-1 - 110-n) among the plurality of PRUs (110-1 - 110-n) based on the identified voltage ratio; and transmitting an adjusted level of power for charging, to the plurality of PRUs (110-1 - 110-n), according to a voltage setting value of the determined PRU (110-1 - 110-n). receiving first information related to a maximum voltage from each of a plurality of power receiving units (110-1 - 110-n), PRUs; transmitting a first level of power for charging to the plurality of PRUs (110-1 - 110-n); in response to transmitting the first level of power, receiving second information related to a measured voltage in each of the plurality of PRUs (110-1 - 110-n); identifying a voltage ratio of each of the plurality of PRUs (110-1 - 110-n) based on the first information and the second information, wherein the voltage ratio is said measured voltage relative to said maximum voltage of each of the plurality of PRUs (110-1 - 110-n); determining a PRU (110-1 - 110-n) among the plurality of PRUs (110-1 - 110-n) based on the identified voltage ratio; and transmitting an adjusted level of power for charging, to the plurality of PRUs (110-1 - 110-n), according to a voltage setting value of the determined PRU (110-1 - 110-n).
A drilling and concreting equipment for producing a concrete pile into the ground, the equipment comprising a central core extending along an axial direction and surrounded by a helical blade, a cutting tool disposed at a lower end of the equipment, and a concrete injection duct equipped with at least one concrete injection port (46a, 46b), and a treatment fluid injection circuit comprising at least one fluid injection port in the vicinity of the cutting tool, the equipment being characterized in that the fluid injection circuit communicates with the concrete injection duct in order to be supplied by said duct.
A method for manufacturing a medical device, which comprises providing a disposable medical device having a hydrophilic polymer coating, packaging said medical device with a gas-permeable packaging material, controlling a product moisture content of the medical device packaged with a gas-permeable packaging material placed in a given humidity environment, and subsequently subjecting to radiation sterilization, wherein the product moisture content of the medical device packaged with a gas-permeable packaging material placed in a given humidity environment is controlled by keeping the disposable medical device packaged with the gas-permeable packaging material in a predetermined humidity atmosphere for more than a time at which the moisture content reaches an equilibrium, said medical device is adapted for treatment and diagnosis by insertion into a living body, characterized in that, said product moisture content is controlled by keeping the disposable medical device packaged with the gas-permeable packaging material in a humidity environment of a relative humidity of 60 to 98% relative humidity for three hours or over.
A method for receiving a downlink signal through an Enhanced Physical Downlink Control Channel, EPDCCH, in a wireless communication system by a user equipment, UE, the method comprising: receiving one or more EPDCCH Physical Resource Block, PRB, sets; and performing blind decoding of an EPDCCH candidate for each aggregation level in the one or more EPDCCH PRB sets, characterized in that: for the EPDCCH PRB set having the index 0, an antenna port related to the EPDCCH candidate is decided to be one of 107 to 110 by using a value satisfying the following expression, n ECCE. low + n RNTI mod N ECCE, where, n ECCE.low is a lowest enhanced control channel element, ECCE, index of the EPDCCH candidate, n RNTI is a cell-temporary radio network temporary identifier, N ECCE is a number of ECCEs. receiving one or more EPDCCH Physical Resource Block, PRB, sets; and performing blind decoding of an EPDCCH candidate for each aggregation level in the one or more EPDCCH PRB sets, characterized in that: for the EPDCCH PRB set having the index 0, an antenna port related to the EPDCCH candidate is decided to be one of 107 to 110 by using a value satisfying the following expression, n ECCE. low + n RNTI mod N ECCE, where, n ECCE.low is a lowest enhanced control channel element, ECCE, index of the EPDCCH candidate, n RNTI is a cell-temporary radio network temporary identifier, N ECCE is a number of ECCEs.
An air conditioner comprising a refrigerant circuit, the refrigerant circuit including: a compressor; an outdoor heat exchanger; an outdoor expansion valve; an indoor expansion valve (11a, 11b); a four-way valve; an indoor heat exchanger (12a, 12b); an auxiliary heat exchanger provided on a refrigerant pipe between the outdoor heat exchanger and the indoor expansion valve (11a, 11b), the auxiliary heat exchanger connected in series with the outdoor expansion valve; a rectifier configured to allow a refrigerant flowing from the outdoor heat exchanger toward the indoor expansion valve (11a, 11b) in a cooling operation and a refrigerant flowing from the indoor expansion valve (11a, 11b) toward the outdoor heat exchanger in a heating operation to sequentially flow through the auxiliary heat exchanger and the outdoor expansion valve; at least one bypass passage bypassing the outdoor expansion valve; at least one flow regulating valve installed on the at least one bypass passage); an injection passage including one end connected to an injection inlet of the compressor and the other end connected between the auxiliary heat exchanger and the outdoor expansion valve, and configured to allow a part of the refrigerant flowing from the auxiliary heat exchanger to the outdoor expansion valve to flow to the compressor through the auxiliary heat exchanger; and a supercooling expansion valve installed in the injection passage and configured to expand the refrigerant in the injection passage flowing toward the auxiliary heat exchanger. a compressor; an outdoor heat exchanger; an outdoor expansion valve; an indoor expansion valve (11a, 11b); a four-way valve; an indoor heat exchanger (12a, 12b); an auxiliary heat exchanger provided on a refrigerant pipe between the outdoor heat exchanger and the indoor expansion valve (11a, 11b), the auxiliary heat exchanger connected in series with the outdoor expansion valve; a rectifier configured to allow a refrigerant flowing from the outdoor heat exchanger toward the indoor expansion valve (11a, 11b) in a cooling operation and a refrigerant flowing from the indoor expansion valve (11a, 11b) toward the outdoor heat exchanger in a heating operation to sequentially flow through the auxiliary heat exchanger and the outdoor expansion valve; at least one bypass passage bypassing the outdoor expansion valve; at least one flow regulating valve installed on the at least one bypass passage); an injection passage including one end connected to an injection inlet of the compressor and the other end connected between the auxiliary heat exchanger and the outdoor expansion valve, and configured to allow a part of the refrigerant flowing from the auxiliary heat exchanger to the outdoor expansion valve to flow to the compressor through the auxiliary heat exchanger; and a supercooling expansion valve installed in the injection passage and configured to expand the refrigerant in the injection passage flowing toward the auxiliary heat exchanger.
An optoelectronic device (30; 50) comprising microwires or nanowires mainly comprising a III-V compound, each of which comprises an alternation of passivated portions (32, 36, 40, 44) and of active portions (34, 38, 42; 52, 54), each active portion being surrounded, at the periphery of the microwire or nanowire, with an active layer (35, 39, 43; 53, 55), where the active layers do not extend on the passivated portions, the active layers being the layers from which most of the radiation provided by the device is emitted, the number of active portions per microwire or nanowire and the height of each one of them being chosen to obtain the desired emission spectrum of the optoelectronic device.
A method for performing device management for a plurality of virtual machines (334, 336) at a terminal including a management virtual machine, the method comprising: creating the plurality of virtual machines, each of the plurality of virtual machines including a management object client (1520, 1540); configuring at least one management object (1812, 1814, 1820, 1824) necessary to provide device management for each of the plurality of virtual machines under a virtualization management object; receiving a device management command from a server through a device management client of the management virtual machine included in the terminal; checking whether the device management command is a device management command for any one of the plurality of virtual machines; processing the device management command when the device management command is the device management command for the any one of the plurality of virtual machines, wherein the virtualization management object includes a first node for configuring information related to the any one of the plurality of virtual machines and includes a second node (1810, 1820) for configuring information necessary for device management for the any one of the plurality of virtual machines under the first node, and the at least one management object is configured under the second node. creating the plurality of virtual machines, each of the plurality of virtual machines including a management object client (1520, 1540); configuring at least one management object (1812, 1814, 1820, 1824) necessary to provide device management for each of the plurality of virtual machines under a virtualization management object; receiving a device management command from a server through a device management client of the management virtual machine included in the terminal; checking whether the device management command is a device management command for any one of the plurality of virtual machines; processing the device management command when the device management command is the device management command for the any one of the plurality of virtual machines, wherein the virtualization management object includes a first node for configuring information related to the any one of the plurality of virtual machines and includes a second node (1810, 1820) for configuring information necessary for device management for the any one of the plurality of virtual machines under the first node, and the at least one management object is configured under the second node.
Monomer composition comprising a mixture of (i) from 80 to 99.9% by weight, particularly preferably from 90 to 99.5% by weight, of at least one first monomer having the following structure wherein R 1 represents hydrogen or methyl and R 2 is hydrogen or an alkyl radical having from 1 to 20 carbon atoms; (ii) from 0.1 to 10% by weight, preferably from 0.5 to 5% by weight, of at least one second monomer which is a (meth)acrylate monomer and comprises an ortho-alkylphenyl ketone-functional group and/or an ortho-alkylphenylaldehyde-functional group which is isomerizable to a hydroxy-ortho-quinodimethane-functional group by irradiation by means of UV light; and (iii) optionally up to 10% by weight of at least one further, olefinically unsaturated monomer having functional groups, wherein the data in % by weight are in each case based on 100% by weight of monomers (i), (ii) and (iii) in the composition. (i) from 80 to 99.9% by weight, particularly preferably from 90 to 99.5% by weight, of at least one first monomer having the following structure wherein R 1 represents hydrogen or methyl and R 2 is hydrogen or an alkyl radical having from 1 to 20 carbon atoms; (ii) from 0.1 to 10% by weight, preferably from 0.5 to 5% by weight, of at least one second monomer which is a (meth)acrylate monomer and comprises an ortho-alkylphenyl ketone-functional group and/or an ortho-alkylphenylaldehyde-functional group which is isomerizable to a hydroxy-ortho-quinodimethane-functional group by irradiation by means of UV light; and (iii) optionally up to 10% by weight of at least one further, olefinically unsaturated monomer having functional groups,
A method for User Equipment, UE, (UE1, UE1') scheduling by a base station (210, 310, 510) in a Time Division Duplex, TDD, network comprising: receiving scheduling decision from at least one neighboring cell (Cell 2, Cell 2') of the base station; and scheduling a UE among a plurality of UEs (UE1 to UE3, UE1', UE2') in a serving cell (Cell 1, Cell 1') of the base station (210, 310, 510) based on the scheduling decision from the at least one neighboring cell (Cell 2, Cell 2') and based on smart antenna information, wherein the smart antenna information includes antenna ports (1 A, 1 B, 2A, 2B) in which the plurality of UEs (UE1', UE2') in the serving cell (Cell 1') and the UE (UE3') to be scheduled by the scheduling decision in the at least one neighboring cell (Cell 2') are located; and wherein scheduling the UE (UE1') among the plurality of UEs (UE1', UE2') in the serving cell (Cell 1') further comprises: scheduling among the plurality of UEs (UE1', UE2') in the serving cell (Cell 1') a UE (UE1') which is located in an area covered by a first antenna port, wherein the area covered by the first antenna port is not adjacent to an area covered by a second antenna port in which the UE (UE3') to be scheduled by the scheduling decision in at least one neighboring cell (Cell 2') is located. receiving scheduling decision from at least one neighboring cell (Cell 2, Cell 2') of the base station; and scheduling a UE among a plurality of UEs (UE1 to UE3, UE1', UE2') in a serving cell (Cell 1, Cell 1') of the base station (210, 310, 510) based on the scheduling decision from the at least one neighboring cell (Cell 2, Cell 2') and based on smart antenna information, wherein the smart antenna information includes antenna ports (1 A, 1 B, 2A, 2B) in which the plurality of UEs (UE1', UE2') in the serving cell (Cell 1') and the UE (UE3') to be scheduled by the scheduling decision in the at least one neighboring cell (Cell 2') are located; and wherein scheduling the UE (UE1') among the plurality of UEs (UE1', UE2') in the serving cell (Cell 1') further comprises: scheduling among the plurality of UEs (UE1', UE2') in the serving cell (Cell 1') a UE (UE1') which is located in an area covered by a first antenna port, wherein the area covered by the first antenna port is not adjacent to an area covered by a second antenna port in which the UE (UE3') to be scheduled by the scheduling decision in at least one neighboring cell (Cell 2') is located. scheduling among the plurality of UEs (UE1', UE2') in the serving cell (Cell 1') a UE (UE1') which is located in an area covered by a first antenna port, wherein the area covered by the first antenna port is not adjacent to an area covered by a second antenna port in which the UE (UE3') to be scheduled by the scheduling decision in at least one neighboring cell (Cell 2') is located.
A source evolved NodeB, eNB, wherein the source eNB comprises: a base station interface, configured to send a measurement instruction to a target eNB, so that the target eNB measures uplink reference signal received power, RSRP, of user equipment, UE, in a target cell; the base station interface, further configured to receive the uplink RSRP, measured by the target eNB, of the UE in the target cell; a processing unit, configured to determine, according to uplink RSRP of the UE in a serving cell and the uplink RSRP of the UE in the target cell, whether to hand over the UE from the serving cell to the target cell, wherein the serving cell belongs to the source eNB, the target cell belongs to a target eNB, the serving cell and the target cell are configured with a same physical cell identifier, PCI; the processing unit is further configured to acquire UE parameters when it is determined to hand over the UE from the serving cell to the target cell, wherein the UE parameters at least comprises timing advance, TA, of the UE in the target cell; and the base station interface, is further configured to send UE data and the UE parameters to the target eNB, wherein the TA in the UE parameters is used to implement uplink synchronization between the target eNB and the UE. a base station interface, configured to send a measurement instruction to a target eNB, so that the target eNB measures uplink reference signal received power, RSRP, of user equipment, UE, in a target cell; the base station interface, further configured to receive the uplink RSRP, measured by the target eNB, of the UE in the target cell; a processing unit, configured to determine, according to uplink RSRP of the UE in a serving cell and the uplink RSRP of the UE in the target cell, whether to hand over the UE from the serving cell to the target cell, wherein the serving cell belongs to the source eNB, the target cell belongs to a target eNB, the serving cell and the target cell are configured with a same physical cell identifier, PCI; the processing unit is further configured to acquire UE parameters when it is determined to hand over the UE from the serving cell to the target cell, wherein the UE parameters at least comprises timing advance, TA, of the UE in the target cell; and the base station interface, is further configured to send UE data and the UE parameters to the target eNB, wherein the TA in the UE parameters is used to implement uplink synchronization between the target eNB and the UE.
A two-part curable urethane adhesive composition comprising: a main agent containing a urethane prepolymer (a); and a curing agent containing a compound having two or more active hydrogen groups per molecule (b); wherein the compound having active hydrogen groups (b) comprises a tri- or higher functional polyol compound with a molecular weight of 1000 or less; and one or both of the main agent and the curing agent further contain a terpene oligomer (x), wherein a content of the polyol compound in the compound having active hydrogen groups (b) is from 0.5 mass% to 25.0 mass% of the compound having active hydrogen groups (b), a total content of the terpene oligomer (x) is from 0.5 mass% to 30 mass% with respect to a total of the main agent and the curing agent. a main agent containing a urethane prepolymer (a); and a curing agent containing a compound having two or more active hydrogen groups per molecule (b); wherein the compound having active hydrogen groups (b) comprises a tri- or higher functional polyol compound with a molecular weight of 1000 or less; and one or both of the main agent and the curing agent further contain a terpene oligomer (x), wherein a content of the polyol compound in the compound having active hydrogen groups (b) is from 0.5 mass% to 25.0 mass% of the compound having active hydrogen groups (b), a total content of the terpene oligomer (x) is from 0.5 mass% to 30 mass% with respect to a total of the main agent and the curing agent.