mhurhangee/ep-ind-claims huggingface dataset:
A material that is the reaction product of: a binder; a curing agent; and a zinc pyrithione represented by Formula: wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, and R 8 are independently selected from the group consisting of hydrogen, alkyl, cycloalkyl, alkoxyl, hydroxyl, aryl, and heterocyclyl; and wherein the material further comprises cork. a binder; a curing agent; and a zinc pyrithione represented by Formula: wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, and R 8 are independently selected from the group consisting of hydrogen, alkyl, cycloalkyl, alkoxyl, hydroxyl, aryl, and heterocyclyl; and wherein the material further comprises cork.
An electrical control system for controlling a variable transmittance window, comprising: a driver circuit in communication with an electro-optic element; a photo sensor disposed proximate to the electro-optic element; a current sensor configured to identify a current draw of the electro-optic element; and a controller in communication with the driver circuit, the photo sensor and the current sensor, wherein the controller is configured to: identify a transmittance level of the electro-optic element based on a transmittance signal received from the photo sensor; identify a temperature condition of the electro-optic element based on a correlation of the current draw to the transmittance level of the electro-optic element; and adjust an output voltage supplied to the electro-optic element in response to the temperature condition. a driver circuit in communication with an electro-optic element; a photo sensor disposed proximate to the electro-optic element; a current sensor configured to identify a current draw of the electro-optic element; and a controller in communication with the driver circuit, the photo sensor and the current sensor, wherein the controller is configured to: identify a transmittance level of the electro-optic element based on a transmittance signal received from the photo sensor; identify a temperature condition of the electro-optic element based on a correlation of the current draw to the transmittance level of the electro-optic element; and adjust an output voltage supplied to the electro-optic element in response to the temperature condition. identify a transmittance level of the electro-optic element based on a transmittance signal received from the photo sensor; identify a temperature condition of the electro-optic element based on a correlation of the current draw to the transmittance level of the electro-optic element; and adjust an output voltage supplied to the electro-optic element in response to the temperature condition.
Heating means for thermally bonding two objects (760, 770) each comprising a plastic material, wherein upon bonding (i) a first inner object is at least partially surrounded by a second outer object and (ii) the heating means at least partially surrounds the first inner object along a full circumferential path around the first inner object and is located between the first inner object and the second outer object, the heating means comprising a band-like structure which is materially interrupted along the circumferential course; wherein the band-like structure comprises a heating aid material (220, 1140) which is inductively heatable, wherein the heating aid material (220, 1140) is spatially distributed or arranged along the circumferential path such that along the full circumferential path around the first inner object electrical conductivity is interrupted in at least one location, and wherein a plurality of openings (110, 610) are formed in the band-like structure (102, 1102, 1302), wherein the openings (110, 610) are dimensioned such that molten plastic material of the first inner object and/or the second outer object can penetrate and bond with molten plastic material of the respective other object (770, 760) and/or wherein the openings are filled with a plastic material which can bond with molten plastic material of the first inner object and/or of the second outer object; characterized by a band-like support to which the band-like structure is attached, wherein along a longitudinal direction of the band-like structure, the band-like support has a larger dimension than the band-like structure, and wherein the band-like support is made of an electrically non-conductive support material. a band-like structure which is materially interrupted along the circumferential course; wherein the band-like structure comprises a heating aid material (220, 1140) which is inductively heatable, wherein the heating aid material (220, 1140) is spatially distributed or arranged along the circumferential path such that along the full circumferential path around the first inner object electrical conductivity is interrupted in at least one location, and wherein a plurality of openings (110, 610) are formed in the band-like structure (102, 1102, 1302), wherein the openings (110, 610) are dimensioned such that molten plastic material of the first inner object and/or the second outer object can penetrate and bond with molten plastic material of the respective other object (770, 760) and/or wherein the openings are filled with a plastic material which can bond with molten plastic material of the first inner object and/or of the second outer object; characterized by a band-like support to which the band-like structure is attached, wherein along a longitudinal direction of the band-like structure, the band-like support has a larger dimension than the band-like structure, and wherein the band-like support is made of an electrically non-conductive support material.
A method of manufacturing a serration balloon, comprising: inflating a medical balloon, the medical balloon being on a catheter; attaching a plurality of cutting blades along the surface of the medical balloon in the inflated state, each cutting blade of the plurality of cutting blades comprising a strip of material with periodic raised wedges spaced along a length thereof; and dipping the medical balloon in the inflated state with the attached plurality of cutting blades in a polymer matrix to form an over mold securing the plurality of cutting blades to the medical balloon, prior to dipping the medical balloon in the inflated state with the attached plurality of cutting blades in the polymer matrix to form an over mold, dipping the medical balloon in the inflated state in the polymer matrix, such that the medical balloon has a first layer of the polymer matrix; wherein following dipping the medical balloon in the inflated state with the attached plurality of cutting blades in the polymer matrix to form an over mold, at least a portion of each cutting blade of the plurality of cutting blades is sandwiched between the first layer of the polymer matrix and a second layer of the first polymer matrix. inflating a medical balloon, the medical balloon being on a catheter; attaching a plurality of cutting blades along the surface of the medical balloon in the inflated state, each cutting blade of the plurality of cutting blades comprising a strip of material with periodic raised wedges spaced along a length thereof; and dipping the medical balloon in the inflated state with the attached plurality of cutting blades in a polymer matrix to form an over mold securing the plurality of cutting blades to the medical balloon, prior to dipping the medical balloon in the inflated state with the attached plurality of cutting blades in the polymer matrix to form an over mold, dipping the medical balloon in the inflated state in the polymer matrix, such that the medical balloon has a first layer of the polymer matrix; wherein following dipping the medical balloon in the inflated state with the attached plurality of cutting blades in the polymer matrix to form an over mold, at least a portion of each cutting blade of the plurality of cutting blades is sandwiched between the first layer of the polymer matrix and a second layer of the first polymer matrix.
A data processing method, comprising: receiving (101; 201; 301; 401), by a terminal, mapping relationship information sent from a base station, wherein the mapping relationship information is used to indicate a mapping relationship between hybrid automatic repeat request, HARQ, entities of the terminal and frequency resources configured by the base station for the terminal, wherein a quantity of the frequency resources configured by the base station for the terminal is greater than a quantity of the HARQ entities of the terminal, the frequency resources being carriers; determining (102; 203; 303; 403), by the terminal, multiple carriers; determining (103; 204; 304; 404), by the terminal according to the mapping relationship information, a HARQ entity corresponding to the multiple carriers; performing, by the terminal, by using the HARQ entity, first processing on a HARQ data block that needs to be transmitted on the multiple carriers, wherein the first processing comprises: generating the HARQ data block; and sending, by the terminal, the HARQ data block to the base station; if the base station fails to correctly receive the HARQ data block and if the terminal receives no scheduling grant signaling used for retransmitting the HARQ data block, determining, by the terminal, a configured retransmission carrier corresponding to the HARQ entity, and retransmitting the HARQ data block to the base station by using the configured retransmission carrier. receiving (101; 201; 301; 401), by a terminal, mapping relationship information sent from a base station, wherein the mapping relationship information is used to indicate a mapping relationship between hybrid automatic repeat request, HARQ, entities of the terminal and frequency resources configured by the base station for the terminal, wherein a quantity of the frequency resources configured by the base station for the terminal is greater than a quantity of the HARQ entities of the terminal, the frequency resources being carriers; determining (102; 203; 303; 403), by the terminal, multiple carriers; determining (103; 204; 304; 404), by the terminal according to the mapping relationship information, a HARQ entity corresponding to the multiple carriers; performing, by the terminal, by using the HARQ entity, first processing on a HARQ data block that needs to be transmitted on the multiple carriers, wherein the first processing comprises: generating the HARQ data block; and sending, by the terminal, the HARQ data block to the base station; if the base station fails to correctly receive the HARQ data block and if the terminal receives no scheduling grant signaling used for retransmitting the HARQ data block, determining, by the terminal, a configured retransmission carrier corresponding to the HARQ entity, and retransmitting the HARQ data block to the base station by using the configured retransmission carrier.
A composition for use in a therapeutic method for soft tissue augmentation in a human subject, wherein said composition comprises isolated non-human elastin and a pharmaceutically acceptable carrier, wherein the elastin has a molecular weight greater than 100 kDa and is substantially insoluble in water, and wherein the non-human elastin is isolated from non-frozen vascular tissue.
A process for the production of a compound according to Formula wherein R 1 O is an alcohol moiety, wherein the process comprises the following steps: a) converting the compound of Formula II to the compound of Formula III b) converting the compound of Formula III to the compound of Formula IV c) converting the compound of Formula IV to the compound of Formula V wherein R 2 O is the same as R 1 O as defined above or is a protected form of R 1 O, d) converting the compound of Formula V to the compound of Formula VI wherein R 1 O is as defined above, e) subjecting the compound of Formula VI to enzymatic hydrolysis with β-glucosidase to give the compound of Formula. a) converting the compound of Formula II to the compound of Formula III b) converting the compound of Formula III to the compound of Formula IV c) converting the compound of Formula IV to the compound of Formula V wherein R 2 O is the same as R 1 O as defined above or is a protected form of R 1 O, d) converting the compound of Formula V to the compound of Formula VI wherein R 1 O is as defined above, e) subjecting the compound of Formula VI to enzymatic hydrolysis with β-glucosidase to give the compound of Formula.
Recombinant human acid α-glucosidase produced in Chinese hamster ovary cell culture for use in a method of treatment of glycogen storage disease type II in a human that is CRIM (cross-reactive immunological material)-positive for endogenous GAA but who has, or is at risk of having anti-GAA antibodies, wherein said recombinant human acid α-glucosidase is to be administered in conjunction with an immunosuppressive or immunotherapeutic regimen, and wherein the immunosuppressive or immunotherapeutic regimen is to be administered prior to the first administration of said recombinant human acid α-glucosidase.
An isolated monoclonal antibody that binds to human Tau, wherein the antibody binds to monomeric Tau, oligomeric Tau, non-phosphorylated Tau, and phosphorylated Tau, wherein the antibody comprises HVR-H1 comprising the amino acid sequence of SEQ ID NO: 342; HVR-H2 comprising the amino acid sequence of SEQ ID NO: 343; HVR-H3 comprising the amino acid sequence of SEQ ID NO: 344; HVR-L1 comprising the amino acid sequence of SEQ ID NO: 345; HVR-L2 comprising the amino acid sequence of SEQ ID NO: 346; and HVR-L3 comprising the amino acid sequence of SEQ ID NO: 347.
Green-emitting phosphor particles produced according to a method for manufacturing green-emitting phosphor particles comprising the steps of: producing a solution composed of a europium compound and a strontium compound; producing a powder (Sr,Eu)SO 3 by dropping a sulfite into the solution; mixing the resulting powder and a powdered gallium compound; and performing firing, wherein the green-emitting phosphor particles are composed of Sr 1-x Ga 2 S 4:Eu x (where 0.10 ≤ x < 0.20), the green-emitting phosphor particles have a value of (internal quantum efficiency/absorption efficiency) being 0.7 or more, and the internal quantum efficiency and the absorption efficiency are determined by the following method through the use of integrating-sphere option of FP-6500 produced by JASCO Corporation: Barium sulfate is used as a reference, the reflectance of barium sulfate is assumed to be 100%, the phosphor particles are packed into a standard jig, and the internal quantum efficiency and the absorption efficiency are calculated by comparison with barium sulfate. producing a solution composed of a europium compound and a strontium compound; producing a powder (Sr,Eu)SO 3 by dropping a sulfite into the solution; mixing the resulting powder and a powdered gallium compound; and performing firing, wherein the green-emitting phosphor particles are composed of Sr 1-x Ga 2 S 4:Eu x (where 0.10 ≤ x < 0.20), the green-emitting phosphor particles have a value of (internal quantum efficiency/absorption efficiency) being 0.7 or more, and the internal quantum efficiency and the absorption efficiency are determined by the following method through the use of integrating-sphere option of FP-6500 produced by JASCO Corporation: Barium sulfate is used as a reference, the reflectance of barium sulfate is assumed to be 100%, the phosphor particles are packed into a standard jig, and the internal quantum efficiency and the absorption efficiency are calculated by comparison with barium sulfate.
A tying system employing an accessory bearing a quick attachment hook for tying a plastic film covering for linear cultivations that bears grommets along both its sides wherein it consists of at least two distinct parts of which one constitutes the tying material and the second part is an injection, in particular moulded and/or 3D printed, plastic part that is connected to the tying material, and said second part bears at least a set of grips and protrusion to fix the tying material characterised in that, said system further comprises a hook boasting two formed lips (L1 and L2) at its entry / exit point that facilitate the insertion of a wire rope while deflects any obstructions from entering when the tying system is pulled with the film on the field, wherein the formed lips (L1 and L2) are cylindrical, ellipsoid, trapezoid or indeed of any geometry, of the same or varying geometry along their length, so that the lips protrude towards the outer boundaries of the main body of the accessory or additionally towards both directions in relation to the imaginary line that connects said lips through the formed gap.
A wireless communication method, comprising: receiving a control message that indicates a predetermined number of code block groups for a transmission, wherein the predetermined number of code block groups comprises a set of code block groups for data to be retransmitted, wherein the data to be retransmitted has been punctured in a previous transmission, and wherein the control message includes a relative position of the set of code block groups that repositions the set of code block groups in the transmission; dividing a plurality of data blocks in the transmission into a first part and a second part, the first part comprising a first number of code block groups for transmission of new data and the second part comprising a second number of code block groups for the data to be retransmitted, wherein the second number of code block groups is determined based on the predetermined number of code block groups in the control message; and performing the transmission using the plurality of data blocks according to the dividing. receiving a control message that indicates a predetermined number of code block groups for a transmission, wherein the predetermined number of code block groups comprises a set of code block groups for data to be retransmitted, wherein the data to be retransmitted has been punctured in a previous transmission, and wherein the control message includes a relative position of the set of code block groups that repositions the set of code block groups in the transmission; dividing a plurality of data blocks in the transmission into a first part and a second part, the first part comprising a first number of code block groups for transmission of new data and the second part comprising a second number of code block groups for the data to be retransmitted, wherein the second number of code block groups is determined based on the predetermined number of code block groups in the control message; and performing the transmission using the plurality of data blocks according to the dividing.
A method for digital pre-distortion, DPD, of an input signal to compensate for a non-linear operation of a power amplifier, the method comprising: for each of at least one band of the input signal: determining a signal envelope, a signal envelope being determined for each of a plurality of successive bins, each bin having a knot at each edge of the corresponding bin; computing a spline function assigned to each knot, the spline function having a left spline and a right spline, each of the left spline and the right spline having a value of unity at the knot and a value of zero at left and right neighboring knots, respectively, so that each bin is associated with two overlapping successive spline functions that overlap each other in only one bin, each spline function being computed as a function of one of the signal envelope and a delayed signal envelope in the band; for each bin, delaying one of the signal envelope and a spline function in each of at least one tap delay line to model a pre-selected memory depth; determining a tap weight for each knot; multiplying each spline function at each knot by its respective tap weight; and generating a pre-distorted signal using a sum of tap-weighted products of the spline functions and a delayed input signal. determining a signal envelope, a signal envelope being determined for each of a plurality of successive bins, each bin having a knot at each edge of the corresponding bin; computing a spline function assigned to each knot, the spline function having a left spline and a right spline, each of the left spline and the right spline having a value of unity at the knot and a value of zero at left and right neighboring knots, respectively, so that each bin is associated with two overlapping successive spline functions that overlap each other in only one bin, each spline function being computed as a function of one of the signal envelope and a delayed signal envelope in the band; for each bin, delaying one of the signal envelope and a spline function in each of at least one tap delay line to model a pre-selected memory depth; determining a tap weight for each knot; multiplying each spline function at each knot by its respective tap weight; and generating a pre-distorted signal using a sum of tap-weighted products of the spline functions and a delayed input signal.
Organic photovoltaic element extending in a lengthwise direction, with a plurality of modules (30, 32), wherein a periodic succession of a number of the modules (30, 32) defines a pattern with at least threefold rotational symmetry, and each of the modules (30, 32) comprises a number of submodules, which are interconnected by a number of connection electrodes, characterized in that the plurality of modules (30, 32) each have a number of serially connected cells, and in that each of the submodules is trapezoidal comprising in each case two first base sides and comprises a number of cells.
An inkjet ink composition comprising: (Component A) a dendritic polymer compound having a weight-average molecular weight of 3,000 to 100,000 and having a constituent repeating unit represented by Formula; (Component B) a polymerization initiator; and (Component C) a radically polymerizable compound, wherein R 1 and R 2 independently denote a hydrogen atom or an alkyl group having 1 to 6 carbons, R 3 denotes an alkyl group having 1 to 12 carbons, and R 2 and R 3 may be bonded to form a ring structure. (Component A) a dendritic polymer compound having a weight-average molecular weight of 3,000 to 100,000 and having a constituent repeating unit represented by Formula; (Component B) a polymerization initiator; and (Component C) a radically polymerizable compound, wherein R 1 and R 2 independently denote a hydrogen atom or an alkyl group having 1 to 6 carbons, R 3 denotes an alkyl group having 1 to 12 carbons, and R 2 and R 3 may be bonded to form a ring structure.