mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising: greater than or equal to 50% to 90% by weight petrolatum; greater than 10% to 40% by weight silicone oil; and blend of fatty acids which serve to structure the silicone comprising C 12 to C 30 fatty acids wherein ratio of C 14:C 12 is about 1.18:1 to 2.0:1, ratio of C 16 to C 12 is about 1.8:1 to 2.5:1 and ratio of C 18 to C 12 is about 1.5:1 to 2.3:1, and wherein the structured silicone oil comprises 8 to 40% by weight fatty acids. greater than or equal to 50% to 90% by weight petrolatum; greater than 10% to 40% by weight silicone oil; and blend of fatty acids which serve to structure the silicone comprising C 12 to C 30 fatty acids wherein ratio of C 14:C 12 is about 1.18:1 to 2.0:1, ratio of C 16 to C 12 is about 1.8:1 to 2.5:1 and ratio of C 18 to C 12 is about 1.5:1 to 2.3:1, and wherein the structured silicone oil comprises 8 to 40% by weight fatty acids.
An aptamer that binds C3 protein, wherein the aptamer comprises the sequence 5'- KPGRMPDVD n LPAWPSVGPAYRPP -3' (SEQ ID NO: 152) wherein, K is a C-5 modified pyrimidine, C, U, T, G, or a 3-carbon spacer; each P is independently, and for each occurrence, a C-5 modified pyrimidine; each R is independently, and for each occurrence, A or G; M is C, U, T, a C-5 modified pyrimidine, or a 3-carbon spacer; each D is independently, and for each occurrence, an A, C, or a 3-carbon spacer; each V is independently, and for each occurrence, an A, G, C, or a 3-carbon spacer; L is A, U, T or a C-5 modified pyrimidine; W is G or a 3-carbon spacer; S is C or a 3-carbon spacer; Y is C, U, or T; and n is 0 or 1. K is a C-5 modified pyrimidine, C, U, T, G, or a 3-carbon spacer; each P is independently, and for each occurrence, a C-5 modified pyrimidine; each R is independently, and for each occurrence, A or G; M is C, U, T, a C-5 modified pyrimidine, or a 3-carbon spacer; each D is independently, and for each occurrence, an A, C, or a 3-carbon spacer; each V is independently, and for each occurrence, an A, G, C, or a 3-carbon spacer; L is A, U, T or a C-5 modified pyrimidine; W is G or a 3-carbon spacer; S is C or a 3-carbon spacer; Y is C, U, or T; and n is 0 or 1.
Unwinding device with an emergency wind-up, in particular for glare and sun protection systems, roller blinds or roller shutters, with a shaft for winding up and unwinding a flexible two-dimensional element, which shaft has a bearing journal at one end for stationary, rotary support and an electrically reversible tube motor at the opposite end, which motor has a motor journal on the one hand for stationary support and a driven part connected fixedly to the shaft on the other hand, - wherein the emergency wind-up has an unlocking device and a mechanical drive device, and - wherein the unlocking device prevents a rotary movement of the motor journal in normal operation and following an actuation in an emergency releases a rotary movement of the motor journal and facilitates a mechanical or springloaded winding-up by this, characterised by that the mechanical drive device is formed as a mainspring wound coaxially around the motor journal and is arranged adjacent to the unlocking device on the motor journal, wherein the mainspring is arranged fixedly at the outer end and at the inner end exerts a torque on the motor journal in a winding-up direction. - wherein the emergency wind-up has an unlocking device and a mechanical drive device, and - wherein the unlocking device prevents a rotary movement of the motor journal in normal operation and following an actuation in an emergency releases a rotary movement of the motor journal and facilitates a mechanical or springloaded winding-up by this,
A closure element on a container comprising a pharmaceutical content, the closure element comprising: - a closure capsule covering an opening of the container, the closure capsule comprising a lateral surface, a closed end and an open end, - a tear strip comprising a grip tab for opening the closure capsule and - a label of the closure, comprising a web-shaped substrate which has its underside provided with an adhesive, characterized in that the closure element is attached to the container such that a first partial area of the label is arranged on the container and a second partial area of the label is arranged on the closure capsule and the tear strip such that the grip tab of the tear strip is not covered by the label. - a closure capsule covering an opening of the container, the closure capsule comprising a lateral surface, a closed end and an open end, - a tear strip comprising a grip tab for opening the closure capsule and - a label of the closure, comprising a web-shaped substrate which has its underside provided with an adhesive,
A pulse laser comprising: a pump source that provides pump energy at a first wavelength; a laser cavity comprising: a multi-mode laser active fiber that receives the pump energy from the pump source and creates gain at a second wavelength different from the first wavelength; and characterized by further comprising an unguided mode stripping portion coupled to the multi-mode laser active fiber, wherein the unguided mode stripping portion has a gap length selected to discriminate against any higher-order fiber modes so as to generate a laser output having a substantially diffraction limited beam in a single transverse mode at the second wavelength, and to allow only a lowest-order fiber mode to build up in the laser cavity; and wherein the unguided mode stripping portion comprises a passive Q-switch layer. a pump source that provides pump energy at a first wavelength; a laser cavity comprising: a multi-mode laser active fiber that receives the pump energy from the pump source and creates gain at a second wavelength different from the first wavelength; and characterized by further comprising an unguided mode stripping portion coupled to the multi-mode laser active fiber, a multi-mode laser active fiber that receives the pump energy from the pump source and creates gain at a second wavelength different from the first wavelength; and characterized by further comprising an unguided mode stripping portion coupled to the multi-mode laser active fiber, wherein the unguided mode stripping portion has a gap length selected to discriminate against any higher-order fiber modes so as to generate a laser output having a substantially diffraction limited beam in a single transverse mode at the second wavelength, and to allow only a lowest-order fiber mode to build up in the laser cavity; and wherein the unguided mode stripping portion comprises a passive Q-switch layer.
A binding machine for gardening comprising: a main handle that is configured to draw out a tape; a clincher arm that is provided such that an end portion side of the clincher arm is configured to be close to and be away from a tape guide; and a tape gripping device that is attached to the clincher arm and that is configured to grip the tape drawn out from the main handle, wherein the tape gripping device includes: a support portion that is provided on the clincher arm; and a gripping member that is provided so as to face the support portion, and the tape gripping device is configured to sandwich and grip the tape by the support portion and the gripping member, the gripping member is configured to be rotatably attached to the clincher arm, such that when a force is applied on the tape in a pulling-out direction in the state where the tape is gripped by the tape gripping device, and when the tape is pulled out, a force to rotate the gripping member is generated, the force to rotate the gripping member is configured to be applied in an engaging direction with the support portion characterized in that a rotating shaft of the gripping member is provided on an upstream side in a drawing direction of the tape with respect to a contact portion between the gripping member and the support portion. a main handle that is configured to draw out a tape; a clincher arm that is provided such that an end portion side of the clincher arm is configured to be close to and be away from a tape guide; and a tape gripping device that is attached to the clincher arm and that is configured to grip the tape drawn out from the main handle, wherein the tape gripping device includes: a support portion that is provided on the clincher arm; and a gripping member that is provided so as to face the support portion, and a support portion that is provided on the clincher arm; and a gripping member that is provided so as to face the support portion, and the tape gripping device is configured to sandwich and grip the tape by the support portion and the gripping member, the gripping member is configured to be rotatably attached to the clincher arm, such that when a force is applied on the tape in a pulling-out direction in the state where the tape is gripped by the tape gripping device, and when the tape is pulled out, a force to rotate the gripping member is generated, the force to rotate the gripping member is configured to be applied in an engaging direction with the support portion characterized in that a rotating shaft of the gripping member is provided on an upstream side in a drawing direction of the tape with respect to a contact portion between the gripping member and the support portion.
A method of making tumor-specific T-cell precursor cells comprising introducing into a population of T-cell precursor cells a complex comprising: a. a guide (gRNA) comprising a first nucleotide sequence that hybridizes to a target DNA in the genome of the T cell precursor cells and a second nucleotide sequence that interacts with a site-directed nuclease; b. a recombinant site-directed nuclease linked to a superpositively charged protein, wherein the site-directed nuclease comprises an RNA-binding portion that interacts with the second nucleotide sequence of the gRNA and wherein the site-directed nuclease specifically binds and cleaves the target DNA to create a double stranded break; and c. a donor nucleic acid sequence comprising a third nucleotide sequence that encodes a chimeric antigen receptor and a fourth nucleotide sequence that hybridizes to a genomic sequence flanking the double stranded break in the target DNA, wherein the complex is introduced into the T-cell precursor cells under conditions that allow homology-directed repair and integration of the third nucleotide sequence into the target DNA to form modified T-cell precursor cells that express the CAR. a. a guide (gRNA) comprising a first nucleotide sequence that hybridizes to a target DNA in the genome of the T cell precursor cells and a second nucleotide sequence that interacts with a site-directed nuclease; b. a recombinant site-directed nuclease linked to a superpositively charged protein, wherein the site-directed nuclease comprises an RNA-binding portion that interacts with the second nucleotide sequence of the gRNA and wherein the site-directed nuclease specifically binds and cleaves the target DNA to create a double stranded break; and c. a donor nucleic acid sequence comprising a third nucleotide sequence that encodes a chimeric antigen receptor and a fourth nucleotide sequence that hybridizes to a genomic sequence flanking the double stranded break in the target DNA,
A process for converting feedstock comprising biomass and/or carbon-containing solid waste material to synthesis gas, the process comprising the following steps: (a) supplying the feedstock to a gasifier, the gasifier comprising a fluidized bed zone and a post-gasification zone; (b) contacting the feedstock with a gasification agent comprising steam and oxygen in the fluidized bed zone, at an average temperature of between about 350-400°C below the ash softening temperature of the feedstock, to partially oxidize the feedstock; (c) contacting at least a portion of the partially oxidized product produced in step (b) with a gasification agent comprising steam and oxygen in the fluidized bed zone, at a higher average temperature than in step (b), the average temperature being between about 250-350°C below the ash softening temperature of the feedstock; (d) contacting at least a portion of the product produced in step (c) with a gasification agent comprising steam and oxygen in the post-gasification zone, at a higher average temperature than in step (c), the average temperature being between about 200-300°C below the ash softening temperature of the feedstock; (e) contacting at least a portion of the product produced in step (d) with a gasification agent comprising steam and oxygen in the post-gasification zone, at a higher average temperature than in step (d), the average temperature being between about 150-250°C below the ash softening temperature of the feedstock, to produce the synthesis gas; and (f) recovering the synthesis gas from the product produced in step (e). (a) supplying the feedstock to a gasifier, the gasifier comprising a fluidized bed zone and a post-gasification zone; (b) contacting the feedstock with a gasification agent comprising steam and oxygen in the fluidized bed zone, at an average temperature of between about 350-400°C below the ash softening temperature of the feedstock, to partially oxidize the feedstock; (c) contacting at least a portion of the partially oxidized product produced in step (b) with a gasification agent comprising steam and oxygen in the fluidized bed zone, at a higher average temperature than in step (b), the average temperature being between about 250-350°C below the ash softening temperature of the feedstock; (d) contacting at least a portion of the product produced in step (c) with a gasification agent comprising steam and oxygen in the post-gasification zone, at a higher average temperature than in step (c), the average temperature being between about 200-300°C below the ash softening temperature of the feedstock; (e) contacting at least a portion of the product produced in step (d) with a gasification agent comprising steam and oxygen in the post-gasification zone, at a higher average temperature than in step (d), the average temperature being between about 150-250°C below the ash softening temperature of the feedstock, to produce the synthesis gas; and (f) recovering the synthesis gas from the product produced in step (e).
An oil cooling system for a gas turbine engine having a geared fan, comprising: an oil inlet; a manifold fluidly coupled to the oil inlet; a support strut comprising internal tubing fluidly coupled to the manifold; a heat exchanger fluidly coupled to the internal tubing of the support strut; a nose cone disposed forward of the heat exchanger and configured to rotate about an axis (A-A'), wherein the heat exchanger is disposed radially inward from a portion of the nose cone; and characterised by a secondary fan fixedly coupled to the nose cone and configured to rotate with the nose cone, wherein the secondary fan is configured to urge coolant over the heat exchanger. an oil inlet; a manifold fluidly coupled to the oil inlet; a support strut comprising internal tubing fluidly coupled to the manifold; a heat exchanger fluidly coupled to the internal tubing of the support strut; a nose cone disposed forward of the heat exchanger and configured to rotate about an axis (A-A'), wherein the heat exchanger is disposed radially inward from a portion of the nose cone; and characterised by a secondary fan fixedly coupled to the nose cone and configured to rotate with the nose cone, wherein the secondary fan is configured to urge coolant over the heat exchanger.
A foil-wrapped vacuum insulation element having a core and an air-tight envelope foil surrounding the core, wherein one or more intermediate layers of paper, cardboard and/or paperboard are also provided between the core and the envelope foil, and these layers envelop the core completely and preferably in a powder-tight manner, characterized in that the intermediate layers is/are folded into an open and/or closable paperboard box which has approximately the same shape as the finished vacuum insulation element.
A method of facilitating wireless communication in a wireless network by an access terminal, characterized by: maintaining a wireless link with a serving base station and a non-serving wireless device within the wireless network; employing at least one processor to analyze respective wireless signals of the serving base station and of the non-serving wireless device; obtaining, by the access terminal, an estimate of wireless quality or wireless interference from the respective wireless signals of the serving base station and of the non-serving wireless device; forwarding the estimate from the access terminal to the non-serving wireless device to facilitate assignment of an uplink transmission based on the quality or interference; and employing at least one antenna to obtain a scheduling message comprising an uplink communication assignment from the non-serving wireless device after the forwarding of the estimate. maintaining a wireless link with a serving base station and a non-serving wireless device within the wireless network; employing at least one processor to analyze respective wireless signals of the serving base station and of the non-serving wireless device; obtaining, by the access terminal, an estimate of wireless quality or wireless interference from the respective wireless signals of the serving base station and of the non-serving wireless device; forwarding the estimate from the access terminal to the non-serving wireless device to facilitate assignment of an uplink transmission based on the quality or interference; and employing at least one antenna to obtain a scheduling message comprising an uplink communication assignment from the non-serving wireless device after the forwarding of the estimate.
A method for transmitting transmit power control commands from a base station to a group of mobile terminals in an OFDM based mobile communication system using component carrier aggregation of plural component carriers, the method characterized by the following steps performed by the base station: generating a transmit power control message having a plurality of transmit power control fields, wherein multiple of the transmit power control fields of each transmit power control message are respectively assigned to different mobile terminals, wherein each multiple of transmit power control fields assigned for a respective one of the mobile terminals signals transmit power control commands for the uplink component carriers aggregated by said respective one mobile terminal, mapping the transmit power control message to a control signaling region of a downlink component carrier, and transmitting the transmit power control message within the control signaling region of a sub-frame on the downlink component carrier to the mobile terminals, wherein one of the transmit power control fields carries an all-carrier transmit power control command to control the transmit power used by said respective one mobile terminal for transmissions on all uplink component carriers configured for that mobile terminal and at least one other transmit power control field carries a transmit power control command for a subset of the uplink component carriers configured for the mobile terminal. generating a transmit power control message having a plurality of transmit power control fields, wherein multiple of the transmit power control fields of each transmit power control message are respectively assigned to different mobile terminals, wherein each multiple of transmit power control fields assigned for a respective one of the mobile terminals signals transmit power control commands for the uplink component carriers aggregated by said respective one mobile terminal, mapping the transmit power control message to a control signaling region of a downlink component carrier, and transmitting the transmit power control message within the control signaling region of a sub-frame on the downlink component carrier to the mobile terminals, wherein one of the transmit power control fields carries an all-carrier transmit power control command to control the transmit power used by said respective one mobile terminal for transmissions on all uplink component carriers configured for that mobile terminal and at least one other transmit power control field carries a transmit power control command for a subset of the uplink component carriers configured for the mobile terminal.
An image forming apparatus, comprising: a print engine to be used to perform an image forming job; a motor to drive a fuser; a driving circuit to supply a power to the motor and to include a sensor to sense a size of current of the power supplied to the motor during an operation to perform the image forming job; and a processor to detect an occurrence of jam based on a size of current sensed by the sensor in a first time interval corresponding to a time point when a printing medium moves toward the fuser and a size of current sensed by the sensor in a second time interval corresponding to after a time point when a printing medium starts passing through the fuser. a print engine to be used to perform an image forming job; a motor to drive a fuser; a driving circuit to supply a power to the motor and to include a sensor to sense a size of current of the power supplied to the motor during an operation to perform the image forming job; and a processor to detect an occurrence of jam based on a size of current sensed by the sensor in a first time interval corresponding to a time point when a printing medium moves toward the fuser and a size of current sensed by the sensor in a second time interval corresponding to after a time point when a printing medium starts passing through the fuser.
A device for monitoring a flange connection of a wind energy installation, in particular a flange connection of a wind energy installation which is subjected to high dynamic loads, comprising a monitoring body (30, 50, 70, 90) which is constructed as a nut cap and which can be mounted on a bolt head or a bolt nut of a bolt in a positive engagement and / or a force-locking engagement, with a central receptacle for the bolt head or the bolt nut, wherein the monitoring body (30, 50, 70, 90) is constructed so as to be damaged in the event of damage to, or destruction of, a bolt head or bolt nut arranged in the central receptacle, and a sensor which is arranged on the monitoring body (30, 50, 70, 90), which sensor is constructed so as to determine a structural integrity of the monitoring body (30, 50, 70, 90), wherein the monitoring body comprises calibrated breakaway joints (38, 58, 78, 98) at one or more corners of the central receptacle and / or at one or more edges of the central receptacle and / or wherein the sensor comprises at least one electrical conductor (36, 56, 76, 96) which at least substantially surrounds the central receptacle once or several times.