mhurhangee/patent-ind-claim-en huggingface dataset:
An expandable, removable and reusable modular high-rise building , made up of prefabricated elements comprising: - a modular structure , comprising pillars , beams , and quick coupling nodes for joining between the pillars and the beams , and - self-supporting modules with dimensions greater than the span between beams of the modular structure , wherein each module comprises: - a base slab comprising lower longitudinal beams joined by lower transversal beams and the corresponding compression layer, - upper longitudinal beams joined by upper transversal beams , - pillars that are joined to the lower longitudinal beams and the upper longitudinal beams , and - smaller and larger perimeter envelopes and upper envelopes; - in the perimeter envelopes of which there are holes made for passage, illumination and ventilation, characterized in that each module further comprises, at least, an intermediate narrowing in the larger envelopes for the passage of the vertical elements of the structure and utility ducts for installations. - a modular structure , comprising pillars , beams , and quick coupling nodes for joining between the pillars and the beams , and - self-supporting modules with dimensions greater than the span between beams of the modular structure , - a base slab comprising lower longitudinal beams joined by lower transversal beams and the corresponding compression layer, - upper longitudinal beams joined by upper transversal beams , - pillars that are joined to the lower longitudinal beams and the upper longitudinal beams , and - smaller and larger perimeter envelopes and upper envelopes; - in the perimeter envelopes of which there are holes made for passage, illumination and ventilation,
A method of screening a candidate agent for the ability to modulate hematopoietic cell development and/or activity, the method comprising, contacting a genetically modified, immunodeficient, rodent with a candidate agent, wherein the genetically modified, immunodeficient rodent is engrafted with human hematopoietic cells and comprises a nucleic acid encoding human IL-6 operably linked to an IL-6 promoter, wherein the rodent expresses a human IL-6 polypeptide and does not express a functional native IL-6 polypeptide, and at least one additional nucleic acid selected from the group consisting of: i) a nucleic acid encoding human SIRPa operably linked to a SIRPa promoter, wherein the rodent expresses a human SIRPa polypeptide; ii) a nucleic acid encoding human M-CSF operably linked to a M-CSF promoter, wherein the rodent expresses a human M-CSF polypeptide; iii) a nucleic acid encoding human IL-3 operably linked to an IL-3 promoter, wherein the rodent expresses a human IL-3 polypeptide; iv) a nucleic acid encoding human GM-CSF operably linked to a GM-CSF promoter, wherein the rodent expresses a human GM-CSF polypeptide; and v) a nucleic acid encoding human TPO operably linked to a TPO promoter, wherein the rodent expresses a human TPO polypeptide; and monitoring one or more output parameters indicative of hematopoietic cell development and/or activity in the genetically modified rodent to determine whether the candidate agent modulates hematopoietic cell development and/or activity. i) a nucleic acid encoding human SIRPa operably linked to a SIRPa promoter, wherein the rodent expresses a human SIRPa polypeptide; ii) a nucleic acid encoding human M-CSF operably linked to a M-CSF promoter, wherein the rodent expresses a human M-CSF polypeptide; iii) a nucleic acid encoding human IL-3 operably linked to an IL-3 promoter, wherein the rodent expresses a human IL-3 polypeptide; iv) a nucleic acid encoding human GM-CSF operably linked to a GM-CSF promoter, wherein the rodent expresses a human GM-CSF polypeptide; and v) a nucleic acid encoding human TPO operably linked to a TPO promoter, wherein the rodent expresses a human TPO polypeptide; and
A curable moldable composition comprising from 10 to 80 volume % of heat resistant fiber compositions, a two component resin mixture of (i) one or more epoxy resins, and (ii) a hardener comprising a combination of triethylenetetraamine (TETA) and from 3 to 15 wt.%, based on the weight of the TETA, of 2-phenylimidazole (2-PI), wherein the two component resin mixture has upon mixing a viscosity of from 10 to 100 mPa.s at 130 °C, where viscosity is measured using the method described in the present specification.
Electromechanical brake device for a motor vehicle, comprising an electromotive actuating device and a brake part which is connected thereto, can be adjusted by the actuating device and can be brought into braking engagement with a counter-brake part , wherein the actuating device has at least one actuating drive wherein the actuating drive has a ball ramp arrangement comprising two cam disks , the cam disks being drivable in rotation relative to one another about an axis (A) by an electric servomotor , and have axially opposite raceways lying obliquely to the axis (A), between each of which a ball is arranged to roll off wherein the raceways have an at least partially rounded cross-sectional profile with a raceway radius (rg), and the ball has a ball diameter (Db), wherein a ratio (C) greater than 0.5 is formed between the raceway radius (rg) and the ball diameter (Db) characterized in in that the raceway has a flattening in at least one end section. wherein the actuating device has at least one actuating drive wherein the actuating drive has a ball ramp arrangement comprising two cam disks , the cam disks being drivable in rotation relative to one another about an axis (A) by an electric servomotor , and have axially opposite raceways lying obliquely to the axis (A), between each of which a ball is arranged to roll off wherein the raceways have an at least partially rounded cross-sectional profile with a raceway radius (rg), and the ball has a ball diameter (Db), wherein a ratio (C) greater than 0.5 is formed between the raceway radius (rg) and the ball diameter (Db) characterized in in that the raceway has a flattening in at least one end section.
An encapsulation film for an organic electronic element, comprising: a light absorbing layer comprising a light absorbing region comprising an encapsulation resin which is a heat-curable resin or a photocurable resin and a light absorbing material , and having an L* value in a CIE LAB color space of 0 to 50, and a moisture barrier layer comprising a moisture reactive adsorbent ; wherein the curable resin is a silane-modified epoxy resin; wherein the light absorbing material is comprised at 0.6 to 50 parts by weight with respect to 100 parts by weight of the encapsulation resin. a light absorbing layer comprising a light absorbing region comprising an encapsulation resin which is a heat-curable resin or a photocurable resin and a light absorbing material , and having an L* value in a CIE LAB color space of 0 to 50, and a moisture barrier layer comprising a moisture reactive adsorbent ; wherein the curable resin is a silane-modified epoxy resin; wherein the light absorbing material is comprised at 0.6 to 50 parts by weight with respect to 100 parts by weight of the encapsulation resin.
A method for determining resources, comprising: receiving , by a user equipment, UE, a first message by using Radio Resource Control, RRC, signaling over a first cell, wherein the first message over the first cell is used for determining at least one first bandwidth part, BWP, in a second cell, the at least one first BWP being smaller than or equal to a bandwidth of the second cell; wherein N second BWPs are indicated by the first message, N is an integer greater than 1, each of the N second BWPs is smaller than or equal to the bandwidth of the second cell, and wherein the method further comprises: receiving, by the UE, a second message over the first cell, wherein the second message indicates the at least one first BWP among the N second BWPs; receiving, by the UE, a third message by using downlink control information, DCI, over the first cell, wherein the third message is used to indicate one or more transmission resources for the UE within the at least one first BWP of the second cell; wherein the second message is conveyed by downlink control information, DCI, or a media access control, MAC, control element, CE. receiving , by a user equipment, UE, a first message by using Radio Resource Control, RRC, signaling over a first cell, wherein the first message over the first cell is used for determining at least one first bandwidth part, BWP, in a second cell, the at least one first BWP being smaller than or equal to a bandwidth of the second cell; wherein N second BWPs are indicated by the first message, N is an integer greater than 1, each of the N second BWPs is smaller than or equal to the bandwidth of the second cell, and wherein the method further comprises: receiving, by the UE, a second message over the first cell, wherein the second message indicates the at least one first BWP among the N second BWPs; receiving, by the UE, a third message by using downlink control information, DCI, over the first cell, wherein the third message is used to indicate one or more transmission resources for the UE within the at least one first BWP of the second cell; wherein the second message is conveyed by downlink control information, DCI, or a media access control, MAC, control element, CE. receiving, by the UE, a second message over the first cell, wherein the second message indicates the at least one first BWP among the N second BWPs; receiving, by the UE, a third message by using downlink control information, DCI, over the first cell, wherein the third message is used to indicate one or more transmission resources for the UE within the at least one first BWP of the second cell; wherein the second message is conveyed by downlink control information, DCI, or a media access control, MAC, control element, CE.
A compound selected from the group consisting of: 4-((5-allyl-2-phenyl-6-(trifluoromethyl)pyrimidin-4-yl)(methyl)amino)benzoic acid; 4-(5-allyl-2-(4-chlorophenyl)-6-(trifluoromethyl)pyrimidin-4-ylamino)benzoic acid; 4-(5-allyl-2-phenyl-6-(trifluoromethyl)pyrimidin-4-ylamino)benzoic acid; and (E)-4-(2-phenyl-5-(prop-1-enyl)-6-(trifluoromethyl)pyrimidin-4-ylamino)benzoic acid. 4-((5-allyl-2-phenyl-6-(trifluoromethyl)pyrimidin-4-yl)(methyl)amino)benzoic acid; 4-(5-allyl-2-(4-chlorophenyl)-6-(trifluoromethyl)pyrimidin-4-ylamino)benzoic acid; 4-(5-allyl-2-phenyl-6-(trifluoromethyl)pyrimidin-4-ylamino)benzoic acid; and (E)-4-(2-phenyl-5-(prop-1-enyl)-6-(trifluoromethyl)pyrimidin-4-ylamino)benzoic acid.
An electrolytic polishing device comprising: a rack ; holding frames for vertically holding a hollow pipe , and pivotally supported on the rack so as to be vertically invertible about the vertical center of the hollow pipe; an electrode inserted in the hollow pipe; liquid buffers (300a 300b) disposed at upper and lower ends of the hollow pipe; and a valve mechanism for circulating an electrolyte in the hollow pipe from a lower liquid buffer to an upper liquid buffer regardless of before and after the inversion of the invertible hollow pipe. a rack ; holding frames for vertically holding a hollow pipe , and pivotally supported on the rack so as to be vertically invertible about the vertical center of the hollow pipe; an electrode inserted in the hollow pipe; liquid buffers (300a 300b) disposed at upper and lower ends of the hollow pipe; and a valve mechanism for circulating an electrolyte in the hollow pipe from a lower liquid buffer to an upper liquid buffer regardless of before and after the inversion of the invertible hollow pipe.
A method for controlling a prosthetic foot that has a foot part and a lower leg part which are connected to each other by means of a joint that allows a plantar flexion and a dorsal flexion, the damping behavior of the joint being adjustable, wherein the method comprises the following steps: a) detecting measured values which allow for statements to be made about the rollover behavior of the prosthetic foot by means of at least one sensor, characterized in that b) comparing the detected measured values and/or at least one parameter determined from said values with stored target values, and c) adjusting the damping behavior depending on the comparison, wherein the measured values are detected multiple times during a step cycle, wherein a course of the measured values across at least one part of the step cycle is compared with a course of the stored target values. wherein the method comprises the following steps: a) detecting measured values which allow for statements to be made about the rollover behavior of the prosthetic foot by means of at least one sensor, characterized in that b) comparing the detected measured values and/or at least one parameter determined from said values with stored target values, and c) adjusting the damping behavior depending on the comparison, a) detecting measured values which allow for statements to be made about the rollover behavior of the prosthetic foot by means of at least one sensor, characterized in that b) comparing the detected measured values and/or at least one parameter determined from said values with stored target values, and c) adjusting the damping behavior depending on the comparison, wherein the measured values are detected multiple times during a step cycle, wherein a course of the measured values across at least one part of the step cycle is compared with a course of the stored target values.
A method for screening skin treatment regimens, ingredients and/or compositions, comprising: (a) measuring the level of one or more small molecule metabolites on an area of skin prior to application of the skin treatment regimen, ingredient and/or composition; (b) after having applied the skin treatment regimen, ingredient and/or composition to the area of skin for a period of time, measuring the level of one or more small molecule metabolites on the area of skin; wherein the skin treatment regimen, ingredient and/or composition is beneficial to the skin if the level of the one or more small molecule metabolites is at least 10% different vs. the no treatment control; wherein the one or more small molecule metabolites are one or more γ-glutamyl amino acids.
A super-frame realignment method to enable inter-wireless network communications, where an own network and a target network already exist, wherein - the own network and the target network comprise a data channel, DCH, wherein the data channel, DCH, comprises a beacon to be transmitted, respectively, - channels are predetermined and beacon formats of their data channels, DCH, are known, and - an inter-beacon-interval, IBI, of the data channel, DCH, of the own network and the target network, respectively, comprises an active period followed by an inactive period , the method further comprises the steps of - checking whether the IBI of the data channel of the own network is of shorter or longer duration than the IBI of the data channel of the target network, and - if the IBI of the data channel of the own network does not have exactly the same duration as the IBI of the data channel of the target network, the own network allocates its own inactive and/or active periods so that an integer multiple of its forthcoming IBI will correspond to the IBI of the target network, or the forthcoming IBI of the own network will correspond to an integer multiple of the IBI of the target network, and characterized in that - the own network and the target network operate on different, neighbouring radio channels. - the own network and the target network comprise a data channel, DCH, wherein the data channel, DCH, comprises a beacon to be transmitted, respectively, - channels are predetermined and beacon formats of their data channels, DCH, are known, and - an inter-beacon-interval, IBI, of the data channel, DCH, of the own network and the target network, respectively, comprises an active period followed by an inactive period , the method further comprises the steps of - checking whether the IBI of the data channel of the own network is of shorter or longer duration than the IBI of the data channel of the target network, and - if the IBI of the data channel of the own network does not have exactly the same duration as the IBI of the data channel of the target network, the own network allocates its own inactive and/or active periods so that an integer multiple of its forthcoming IBI will correspond to the IBI of the target network, or the forthcoming IBI of the own network will correspond to an integer multiple of the IBI of the target network, and characterized in that - the own network and the target network operate on different, neighbouring radio channels. - checking whether the IBI of the data channel of the own network is of shorter or longer duration than the IBI of the data channel of the target network, and - if the IBI of the data channel of the own network does not have exactly the same duration as the IBI of the data channel of the target network, the own network allocates its own inactive and/or active periods so that an integer multiple of its forthcoming IBI will correspond to the IBI of the target network, or the forthcoming IBI of the own network will correspond to an integer multiple of the IBI of the target network, and characterized in that - the own network and the target network operate on different, neighbouring radio channels.
A beverage container, comprising: a container body having an injection hole that is formed on a bottom of a receiving part of the container body ; a holder coupled to the injection hole and configured to open and close the injection hole while the holder moves up and down through the injection hole , and into which a nozzle of a beverage supply device is insertable; and a locking member engaged with a lifting wall of the holder , having a plurality of elastic arms that come into contact with a lower surface of the bottom of the container body and resiliently biases the holder downwards so that the holder closes the injection hole , wherein a receiving space has been formed by cutting a part of the body of the locking member , where each of the elastic arms is received in the receiving space in a depressed manner, wherein in a state where the container body is separated from the beverage supply device, the holder is lowered and the injection hole closed due to an elastic force of the elastic arms , and in a state where the container body is coupled to the beverage supply device, with the nozzle inserted into the holder , and the assembly of the holder and the locking member moved upwards by being pressurized by the nozzle such that each of the elastic arms are received in the receiving space of the body of the locking member in the depressed manner, whereby the injection hole is open, to allow filling of the container body from the beverage supply device. a container body having an injection hole that is formed on a bottom of a receiving part of the container body ; a holder coupled to the injection hole and configured to open and close the injection hole while the holder moves up and down through the injection hole , and into which a nozzle of a beverage supply device is insertable; and a locking member engaged with a lifting wall of the holder , having a plurality of elastic arms that come into contact with a lower surface of the bottom of the container body and resiliently biases the holder downwards so that the holder closes the injection hole , wherein a receiving space has been formed by cutting a part of the body of the locking member , where each of the elastic arms is received in the receiving space in a depressed manner, wherein in a state where the container body is separated from the beverage supply device, the holder is lowered and the injection hole closed due to an elastic force of the elastic arms , and in a state where the container body is coupled to the beverage supply device, with the nozzle inserted into the holder , and the assembly of the holder and the locking member moved upwards by being pressurized by the nozzle such that each of the elastic arms are received in the receiving space of the body of the locking member in the depressed manner, whereby the injection hole is open, to allow filling of the container body from the beverage supply device.
An engine component, comprising: a body having an internal surface and an external surface, the internal surface at least partially defining an internal cooling circuit ; and a plurality of cooling holes formed in the body and extending between the internal cooling circuit and the external surface of the body, the plurality of cooling holes including a first cooling hole, the first cooling hole comprising a metering portion with a constant cross-sectional area and a cross-sectional shape having a maximum height that is offset relative to a longitudinal centerline of the metering portion; and a diffuser portion extending from the metering portion to the external surface of the body, wherein the metering portion extends from an inlet on the internal surface to the diffuser portion with the constant cross-sectional area and inclined relative to the external surface of the body at an angle of 20°-45° to define the cross-sectional shape along the longitudinal centerline having a metering portion top surface, a metering portion bottom surface, and metering portion sides that join the metering portion top surface to the metering portion bottom surface, wherein the metering portion top surface includes a central concave section relative to the first cooling hole, and wherein the metering portion bottom surface includes a concave section relative to the first cooling hole or a flat section. a body having an internal surface and an external surface, the internal surface at least partially defining an internal cooling circuit ; and a plurality of cooling holes formed in the body and extending between the internal cooling circuit and the external surface of the body, the plurality of cooling holes including a first cooling hole, the first cooling hole comprising a metering portion with a constant cross-sectional area and a cross-sectional shape having a maximum height that is offset relative to a longitudinal centerline of the metering portion; and a diffuser portion extending from the metering portion to the external surface of the body, wherein the metering portion extends from an inlet on the internal surface to the diffuser portion with the constant cross-sectional area and inclined relative to the external surface of the body at an angle of 20°-45° to define the cross-sectional shape along the longitudinal centerline having a metering portion top surface, a metering portion bottom surface, and metering portion sides that join the metering portion top surface to the metering portion bottom surface, wherein the metering portion top surface includes a central concave section relative to the first cooling hole, and wherein the metering portion bottom surface includes a concave section relative to the first cooling hole or a flat section.
An apparatus comprising: a film heater configured to heat smokeable material to volatilize at least one component of the smokeable material for inhalation, the film heater comprising two or more heating regions ; a controller configured to activate the heating regions according to a predetermined pattern; and a heating chamber , characterised in that the controller is configured to activate the heating regions sequentially along the heating chamber . a film heater configured to heat smokeable material to volatilize at least one component of the smokeable material for inhalation, the film heater comprising two or more heating regions ; a controller configured to activate the heating regions according to a predetermined pattern; and a heating chamber , characterised in that the controller is configured to activate the heating regions sequentially along the heating chamber .