mhurhangee/ep-ind-claims huggingface dataset:
A therapeutically effective amount of a viral vector for use in the treatment of a malignant glioma in a subject in need thereof, comprising a nucleic acid construct which comprises: (i) a first polynucleotide sequence encoding a Fas-chimera (Fas-c), and (ii) a second polynucleotide sequence encoding an endothelial cell-specific promoter, which is operably linked to the first polynucleotide sequence. (i) a first polynucleotide sequence encoding a Fas-chimera (Fas-c), and (ii) a second polynucleotide sequence encoding an endothelial cell-specific promoter, which is operably linked to the first polynucleotide sequence.
A method of configuring a laser scanner, the method comprising: activating a configuration mode of the laser scanner; sampling a field of view of the laser scanner; storing a background field of view of the laser scanner; introducing a target item in the field of view of the laser scanner; acquiring, via the laser scanner, a position of the target item as a vertex point of a monitoring zone to be configured; moving the target item through a plurality of positions in the field of view of the laser scanner; acquiring, via the laser scanner, a positional coordinate for each of a plurality of vertex points corresponding to the plurality of positions of the target item; and aggregating the positional coordinates for the respective vertex points to determine the monitoring zone for the laser scanner, characterized by further comprising receiving at the laser scanner, a signal from a remote controller, and in that said acquiring, via the laser scanner, a position of the target item as a vertex point of a monitoring zone to be configured is based on the signal received from the remote controller. activating a configuration mode of the laser scanner; sampling a field of view of the laser scanner; storing a background field of view of the laser scanner; introducing a target item in the field of view of the laser scanner; acquiring, via the laser scanner, a position of the target item as a vertex point of a monitoring zone to be configured; moving the target item through a plurality of positions in the field of view of the laser scanner; acquiring, via the laser scanner, a positional coordinate for each of a plurality of vertex points corresponding to the plurality of positions of the target item; and aggregating the positional coordinates for the respective vertex points to determine the monitoring zone for the laser scanner, characterized by further comprising receiving at the laser scanner, a signal from a remote controller, and in that said acquiring, via the laser scanner, a position of the target item as a vertex point of a monitoring zone to be configured is based on the signal received from the remote controller.
A blade outer air seal member (32; 132;232;332) comprising: a body (40;340) that extends between two circumferential sides (42;342), axially between a leading edge (44a;344a) and a trailing edge (44b;344b), and between a gas path side (46a;346a) and a radially outer side (46b;346b) opposite the gas path side (46a;346a); and a ceramic coating (48;248;348) initially disposed on a portion (50;350) of the gas path side (46a;346a) outside of a blade rub area (52;352) of the gas path side (46a;346a), wherein the coated portion (50;350) includes a first area along the leading edge (44a;344a) and a second area along the trailing edge (44b;344b), characterised in that: the blade rub area (52;352) is bare with regard to any ceramic coating (48;248;348). a body (40;340) that extends between two circumferential sides (42;342), axially between a leading edge (44a;344a) and a trailing edge (44b;344b), and between a gas path side (46a;346a) and a radially outer side (46b;346b) opposite the gas path side (46a;346a); and a ceramic coating (48;248;348) initially disposed on a portion (50;350) of the gas path side (46a;346a) outside of a blade rub area (52;352) of the gas path side (46a;346a), wherein the coated portion (50;350) includes a first area along the leading edge (44a;344a) and a second area along the trailing edge (44b;344b), the blade rub area (52;352) is bare with regard to any ceramic coating (48;248;348).
An adhesive composition comprising one or more polyisocyanate and one or more polymeric polyol, wherein said polymeric polyol is a reaction product of a polyol initiator, wherein said polyol initiator is a reaction product of (a) one or more dihydroxy tertiary amine compound having the structure I: wherein R 1 is hydrogen or a C 1 -C 6 linear or branched alkyl group, and R 2 and R 3 are independently a C 1 -C 6 linear or branched alkyl group, and (b) a polyhydroxy alcohol, and one or more epoxide compound having the structure X: or one or more glycidyl ether compound having the structure XI: or a mixture thereof; wherein R 4 is hydrogen, phenyl, cyclohexyl, or a C 1 -C 18 linear or branched alkyl, and R 5 is hydrogen, phenyl, a C 1 -C 6 linear or branched alkyl-substituted phenyl, or a C 1 -C 18 linear or branched alkyl, wherein said adhesive composition contains solvent in an amount of 0 to 5% by weight based on the weight of said adhesive composition. one or more polyisocyanate and one or more polymeric polyol, wherein said polymeric polyol is a reaction product of a polyol initiator, wherein said polyol initiator is a reaction product of (a) one or more dihydroxy tertiary amine compound having the structure I: wherein R 1 is hydrogen or a C 1 -C 6 linear or branched alkyl group, and R 2 and R 3 are independently a C 1 -C 6 linear or branched alkyl group, and (b) a polyhydroxy alcohol, and one or more epoxide compound having the structure X: or one or more glycidyl ether compound having the structure XI: or a mixture thereof; wherein R 4 is hydrogen, phenyl, cyclohexyl, or a C 1 -C 18 linear or branched alkyl, and R 5 is hydrogen, phenyl, a C 1 -C 6 linear or branched alkyl-substituted phenyl, or a C 1 -C 18 linear or branched alkyl, a polyol initiator, wherein said polyol initiator is a reaction product of (a) one or more dihydroxy tertiary amine compound having the structure I: wherein R 1 is hydrogen or a C 1 -C 6 linear or branched alkyl group, and R 2 and R 3 are independently a C 1 -C 6 linear or branched alkyl group, and (b) a polyhydroxy alcohol, and (a) one or more dihydroxy tertiary amine compound having the structure I: wherein R 1 is hydrogen or a C 1 -C 6 linear or branched alkyl group, and R 2 and R 3 are independently a C 1 -C 6 linear or branched alkyl group, and wherein R 1 is hydrogen or a C 1 -C 6 linear or branched alkyl group, and R 2 and R 3 are independently a C 1 -C 6 linear or branched alkyl group, and (b) a polyhydroxy alcohol, and one or more epoxide compound having the structure X: or one or more glycidyl ether compound having the structure XI: or a mixture thereof; wherein R 4 is hydrogen, phenyl, cyclohexyl, or a C 1 -C 18 linear or branched alkyl, and R 5 is hydrogen, phenyl, a C 1 -C 6 linear or branched alkyl-substituted phenyl, or a C 1 -C 18 linear or branched alkyl, wherein R 4 is hydrogen, phenyl, cyclohexyl, or a C 1 -C 18 linear or branched alkyl, and R 5 is hydrogen, phenyl, a C 1 -C 6 linear or branched alkyl-substituted phenyl, or a C 1 -C 18 linear or branched alkyl,
A negative electrode plate, comprising a negative electrode current collector; a negative electrode active material layer disposed on the negative electrode current collector comprising a negative electrode active material, the negative electrode active material comprising a silicon-based material; a binder-free inorganic dielectric layer disposed on one side of the negative electrode active material layer away from the negative electrode current collector, the inorganic dielectric layer comprising an inorganic dielectric material, and the inorganic dielectric layer including at least a main body portion disposed on the surface of the negative electrode active material layer, the main body portion having a channel penetratingly arranged along a thickness direction of the main body portion; and a lithium metal layer disposed on the surface of the inorganic dielectric layer away from the negative electrode active material layer. a negative electrode current collector; a negative electrode active material layer disposed on the negative electrode current collector comprising a negative electrode active material, the negative electrode active material comprising a silicon-based material; a binder-free inorganic dielectric layer disposed on one side of the negative electrode active material layer away from the negative electrode current collector, the inorganic dielectric layer comprising an inorganic dielectric material, and the inorganic dielectric layer including at least a main body portion disposed on the surface of the negative electrode active material layer, the main body portion having a channel penetratingly arranged along a thickness direction of the main body portion; and a lithium metal layer disposed on the surface of the inorganic dielectric layer away from the negative electrode active material layer.
A display device, comprising: a light source module as defined in claim 1; and a display panel located at one side of the light source module; the display panel comprising: a first polarizer film; a second polarizer film having a second polarizing transmission axis; and a liquid crystal layer disposed between the first polarizer film and the second polarizer film, wherein the second polarizer film is located between the liquid crystal layer and the first turning film of the light source module, and an included angle between an axial direction of the first polarizing transmission axis and an axial direction of the second polarizing transmission axis substantially falls within a range from 0 degree to 60 degrees. a light source module as defined in claim 1; and a display panel located at one side of the light source module; the display panel comprising: a first polarizer film; a second polarizer film having a second polarizing transmission axis; and a liquid crystal layer a first polarizer film; a second polarizer film having a second polarizing transmission axis; and a liquid crystal layer disposed between the first polarizer film and the second polarizer film, wherein the second polarizer film is located between the liquid crystal layer and the first turning film of the light source module, and an included angle between an axial direction of the first polarizing transmission axis and an axial direction of the second polarizing transmission axis substantially falls within a range from 0 degree to 60 degrees.
A full ring turbine component which extends about 360° around a central axis, comprising: a plurality of adjacent vanes which each have a mate face secured to the mate face of an opposed vane; and characterised by further comprising: a wedge member positioned between the mate faces of at least some of the vanes, at the top end of the vanes, and a braze material between outer faces of the wedge member and the mate faces of each of the at least some of the turbine subcomponents. a plurality of adjacent vanes which each have a mate face secured to the mate face of an opposed vane; and a wedge member positioned between the mate faces of at least some of the vanes, at the top end of the vanes, and a braze material between outer faces of the wedge member and the mate faces of each of the at least some of the turbine subcomponents.
A portable communications device comprising: a first receiver chain including: a first controllable filter (408, 414); a first decoder circuit coupled to said first controllable filter; a signal quality detector; and a second receiver chain which is less complex than said first receiver chain and is implemented using fewer components than said first receiver chain, the second receiver chain including: i) a second controllable filter (434, 438); and ii) a first energy detection module coupled to said second controllable filter; and a band selection controller coupled to said signal quality detector, said energy detection module, said first and second controllable filters, and said band selection controller selecting the frequency passband of the first and second controllable filters as a function of a first signal quality indicator received from said signal quality detector, and a second signal quality indicator corresponding to an output of said energy detection module. a first receiver chain including: a first controllable filter (408, 414); a first decoder circuit coupled to said first controllable filter; a signal quality detector; and a second receiver chain which is less complex than said first receiver chain and is implemented using fewer components than said first receiver chain, the second receiver chain including: i) a second controllable filter (434, 438); and ii) a first energy detection module coupled to said second controllable filter; and a band selection controller coupled to said signal quality detector, said energy detection module, said first and second controllable filters, and said band selection controller selecting the frequency passband of the first and second controllable filters as a function of a first signal quality indicator received from said signal quality detector, and a second signal quality indicator corresponding to an output of said energy detection module. a first controllable filter (408, 414); a first decoder circuit coupled to said first controllable filter; a signal quality detector; and a second receiver chain which is less complex than said first receiver chain and is implemented using fewer components than said first receiver chain, the second receiver chain including: i) a second controllable filter (434, 438); and ii) a first energy detection module coupled to said second controllable filter; and i) a second controllable filter (434, 438); and ii) a first energy detection module coupled to said second controllable filter; and a band selection controller coupled to said signal quality detector, said energy detection module, said first and second controllable filters, and said band selection controller selecting the frequency passband of the first and second controllable filters as a function of a first signal quality indicator received from said signal quality detector, and a second signal quality indicator corresponding to an output of said energy detection module.
A surgical drape (200, 300, 400) comprising: an exterior surface adjacent to a sterile field for performing a surgical procedure; an interior surface forming a cavity for receiving a non-sterile portion of a robotic surgical system; an integral cuff (220, 323, 412) including a permanently turned-up fold of the exterior and interior surfaces at an open end of the cavity and a marker (218, 320, 411) extended along an edge of the permanently turned-up fold designating a sterile side and a non-sterile side of the drape; and an instrument sterile adaptor for engaging a surgical tool and the non-sterile portion of the robotic surgical system, the sterile adaptor configured to transfer signals between the surgical tool and the non-sterile portion of the robotic surgical system. an exterior surface adjacent to a sterile field for performing a surgical procedure; an interior surface forming a cavity for receiving a non-sterile portion of a robotic surgical system; an integral cuff (220, 323, 412) including a permanently turned-up fold of the exterior and interior surfaces at an open end of the cavity and a marker (218, 320, 411) extended along an edge of the permanently turned-up fold designating a sterile side and a non-sterile side of the drape; and an instrument sterile adaptor for engaging a surgical tool and the non-sterile portion of the robotic surgical system, the sterile adaptor configured to transfer signals between the surgical tool and the non-sterile portion of the robotic surgical system.
A manifold for a parallel flow heat exchanger, the manifold comprising: a first plurality of channels (5a, 15a) each having an opening facing a first direction and an opening facing a second direction different from the first direction; a second plurality of channels (5b, 15b) interleaved with the first plurality of channels, the second plurality of channels having an opening facing a third direction and an opening facing the first direction, wherein the third direction is different from the first direction and the second direction; the manifold being characterized in that it further comprises a third plurality of channels having an opening facing a fourth direction and an opening facing the first direction, wherein the fourth direction is different from the first direction, the second direction, and the third direction. a first plurality of channels (5a, 15a) each having an opening facing a first direction and an opening facing a second direction different from the first direction; a second plurality of channels (5b, 15b) interleaved with the first plurality of channels, the second plurality of channels having an opening facing a third direction and an opening facing the first direction, wherein the third direction is different from the first direction and the second direction; the manifold being characterized in that it further comprises a third plurality of channels having an opening facing a fourth direction and an opening facing the first direction, wherein the fourth direction is different from the first direction, the second direction, and the third direction.
Blow molding machine for producing hollow bodies from heated preforms with at least one blow mold and at least one blow nozzle which can be vertically moved relative with respect to each other via a drive, wherein the drive is accomplished electromagnetically, characterized in that the electromagnetic drive contains at least one magnet coil which extends annularly around the blow nozzle and a magnet body fixed to the blow nozzle.
Procedure for determining and/or monitoring a process variable, wherein a time-limited excitation signal (U(t)), which is described by at least a TARGET variable or a TARGET signal form, is supplied to a first piezoelectric element or a first polarized zone of a piezoelectric element, wherein the response signal (U a (t)), which is described by an ACTUAL variable or ACTUAL signal form that corresponds, respectively, to the TARGET variable or the TARGET signal form is registered by a second piezoelectric element, which is coupled with the first piezoelectric element via a coupling medium in order to avoid reflections, and is arranged in the immediate vicinity of said piezoelectric element, or by a second polarized zone of the piezoelectric element, wherein the ACTUAL variable or the ACTUAL signal form of the response signal (U a (t)) and the TARGET variable or the TARGET signal form of the response signal (U a (t)) are compared with one another, wherein, in the event of a deviation between the ACTUAL variable or the ACTUAL signal form of the response signal (U a (t)) from the TARGET variable or the TARGET signal form, respectively, of the response signal (U a (t)), the excitation signal (U(t)) is modified in such a way that the ACTUAL variable or the ACTUAL signal form of the ultrasonic measuring signal emitted by the first piezoelectric element or by the first polarized zone of the piezoelectric element is at least approximately equal to the TARGET variable or the TARGET signal form, respectively, of the response signal (U a (t)), and wherein the process variable is determined via a sound entrainment method or an echo method using the ultrasonic measuring signal that can be described by the defined TARGET variable or the defined TARGET signal form, respectively.
A connecting assembly for a water filter, comprising two connecting pieces (305, 306), which are located opposite one another on an axis, wherein at least one connecting piece (305, 306) is formed so as to be axially displaceable via an actuation member in order to connect and simultaneously fix the water filter, wherein a rotational movement of the actuation member is converted into an axial displacement of the connecting piece (305, 306), characterized in that the connecting piece (305, 306), which forms the input of the water filter, comprises a valve, which is opened by locking the water filter, wherein a connecting piece (305, 306), together with the actuation member, is formed so as to be capable of being rotated, wherein the rotational movement is converted into the axial displacement via a guide slot, and wherein the actuation member is formed so as to be capable of being rotated by less than 360° in each case for opening and closing the connecting assembly.
A heterodimeric, conditionally active chimeric antigen receptor comprising: a first polypeptide comprising an antigen-binding domain that comprises a single chain antibody variable region that specifically binds to CD19 or an antigen expressed by a B cell, a first member of the dimerization pair, and a first transmembrane domain; and a second polypeptide comprising a second member of a dimerization pair, a second transmembrane domain, and an intracellular signaling domain; wherein a dimerizing agent dimerizes the heterodimeric CAR when the first and second polypeptides are expressed by a cell with the dimerizing agent bound between the dimerization pair members of the first and second polypeptides. a first polypeptide comprising an antigen-binding domain that comprises a single chain antibody variable region that specifically binds to CD19 or an antigen expressed by a B cell, a first member of the dimerization pair, and a first transmembrane domain; and a second polypeptide comprising a second member of a dimerization pair, a second transmembrane domain, and an intracellular signaling domain; wherein a dimerizing agent dimerizes the heterodimeric CAR when the first and second polypeptides are expressed by a cell with the dimerizing agent bound between the dimerization pair members of the first and second polypeptides.
A method for pelletizing an asphalt component the method comprising: asphalt source processing comprising separating out a multiplicity of fractions, including a mineral fraction and a multiplicity of asphalt components, from an original asphalt source material; pre-pelletization processing comprising recombining at least partially the asphalt components from the original asphalt source material to form a combined asphalt material; pelletizing the combined asphalt material to form pellets; post-pelletization processing comprising coating the pellets with the mineral fraction, wherein the pellets produced are free-flowing, non-tacky, not subject to cold flow and are not destructively altered by compression on packaging and storage; and drying and/or packaging the pellets, without further modification such that the packaged product is compatible for use in post-packaging processing including product applications. asphalt source processing comprising separating out a multiplicity of fractions, including a mineral fraction and a multiplicity of asphalt components, from an original asphalt source material; pre-pelletization processing comprising recombining at least partially the asphalt components from the original asphalt source material to form a combined asphalt material; pelletizing the combined asphalt material to form pellets; post-pelletization processing comprising coating the pellets with the mineral fraction, wherein the pellets produced are free-flowing, non-tacky, not subject to cold flow and are not destructively altered by compression on packaging and storage; and drying and/or packaging the pellets, without further modification such that the packaged product is compatible for use in post-packaging processing including product applications.