mhurhangee/patent-ind-claim-en huggingface dataset:
An immunoconjugate, comprising: (a) a VHH chain of an anti-PD-L1 nanobody or an anti-PD-L1 nanobody with the VHH chain, wherein the amino acid sequence of the VHH chain is as defined in SEQ ID NO.: 2; and (b) a conjugating moiety that is a radionuclide comprising: (i) a diagnostic radioisotope selected from a group consisting of: Tc-99m, Ga-68, F-18, I-123, I-125, In-111, Ga-67, Cu-64, Zr-89, C-11, and a combination thereof; and/or (ii) a therapeutics radioisotope selected from a group consisting of: Lu-177, Y-90, Ac-225, As-211, Bi-212, Bi-213, Cs-137, Cr-51, Co-60, Dy-165, Er-169, Fm-255, Au-198, Ho-166, I-125, I-131, Ir-192, Fe-59, Pb-212, Mo-99, Pd-103, P-32, K-42, Re-186, Re-188, Sm-153, Ra-223, Ru-106, Na-24, Sr-89, Tb-149, Th-227, Xe-133, Yb-169, Yb-177, and a combination thereof. (a) a VHH chain of an anti-PD-L1 nanobody or an anti-PD-L1 nanobody with the VHH chain, wherein the amino acid sequence of the VHH chain is as defined in SEQ ID NO.: 2; and (b) a conjugating moiety that is a radionuclide comprising: (i) a diagnostic radioisotope selected from a group consisting of: Tc-99m, Ga-68, F-18, I-123, I-125, In-111, Ga-67, Cu-64, Zr-89, C-11, and a combination thereof; and/or (ii) a therapeutics radioisotope selected from a group consisting of: Lu-177, Y-90, Ac-225, As-211, Bi-212, Bi-213, Cs-137, Cr-51, Co-60, Dy-165, Er-169, Fm-255, Au-198, Ho-166, I-125, I-131, Ir-192, Fe-59, Pb-212, Mo-99, Pd-103, P-32, K-42, Re-186, Re-188, Sm-153, Ra-223, Ru-106, Na-24, Sr-89, Tb-149, Th-227, Xe-133, Yb-169, Yb-177, and a combination thereof. (i) a diagnostic radioisotope selected from a group consisting of: Tc-99m, Ga-68, F-18, I-123, I-125, In-111, Ga-67, Cu-64, Zr-89, C-11, and a combination thereof; and/or (ii) a therapeutics radioisotope selected from a group consisting of: Lu-177, Y-90, Ac-225, As-211, Bi-212, Bi-213, Cs-137, Cr-51, Co-60, Dy-165, Er-169, Fm-255, Au-198, Ho-166, I-125, I-131, Ir-192, Fe-59, Pb-212, Mo-99, Pd-103, P-32, K-42, Re-186, Re-188, Sm-153, Ra-223, Ru-106, Na-24, Sr-89, Tb-149, Th-227, Xe-133, Yb-169, Yb-177, and a combination thereof.
Device for fixing a gripper on a gripper shaft of a textile machine, the device comprising a support element for the gripper , wherein the support element for the gripper is connected to a holder to be mounted on the gripper shaft via a connecting element in such a way that the support element for the gripper can be detached from the holder , characterized in that the connecting element is designed as a tommy screw , wherein the tommy screw engages in a corresponding opening in the holder while rotatably penetrating through a bore in the support element and engaging behind an abutment, and in that the connection between the support element and the holder is kept under tension by means of a spring element.
A vortex generating device comprising a body , said body comprising a leading edge and a trailing edge , a streamwise direction (l) extending from the leading edge to the trailing edge, the body further exhibiting a spanwise extent extending along a spanwise direction (s), the body, in profile cross sections taken across the spanwise direction, exhibiting an airfoil-shaped geometry, each airfoil-shaped profile cross section having a camber line extending from the leading edge to the trailing edge, at least two of the camber lines exhibiting different camber angles, such that the body exhibits at least two different flow deflection angles along the spanwise extent, the body further comprising a first surface extending between the leading edge and the trailing edge and comprising the airfoil-shaped profile lines on a first side of the respective camber lines and a second surface extending between the leading edge and the trailing edge and comprising the airfoil-shaped profiles on an opposite second side of the respective camber lines, and the first and second surface joining each other at the leading edge and at the trailing edge , wherein the trailing edge extends from a first spanwise end to a second spanwise end , and the trailing edge, when seen from a downstream viewpoint, comprises a first section in which it is convexly shaped on the side of the first surface and is concavely shaped on the side of the second surface , and comprises a second section in which it is concavely shaped on the side of the first surface and is convexly shaped on the side of the second surface , an imaginary trailing edge diagonal extending straight from the first spanwise end of the trailing edge to the second spanwise end of the trailing edge, wherein, when seen from the downstream viewpoint, the trailing edge crosses the imaginary trailing edge diagonal exactly once at one diagonal crossing point , characterized in that the trailing edge , when seen from the downstream viewpoint, comprises at least two trailing edge segments which abut each other at a nonzero angle.
A current collector, comprising an insulation layer; and a conductive layer at least located on at least one surface of the insulation layer, wherein the conductive layer has a room temperature thin film resistor of R S , where 0.01Ω/□ ≦ R S ≦0.15Ω/□, and the current collector is provided with a plurality of holes penetrating through the insulation layer and the conductive layer, characterized in that the conductive layer is further arranged on wall surfaces of the plurality of holes, and for each of the plurality of holes having the conductive layer disposed on its wall surface, the conductive layer is located on an entirety or a part of the wall surface.
A coated substrate comprising: a) a fabric substrate layer; b) an adhesive layer which is formed from a first composition comprising (i) a thermoplastic elastomer selected from the group consisting of maleic anhydride functionalized olefin-based polymer and a styrene ethylene butene styrene (SEBS) block copolymer with a styrene content of equal to or less than 35 wt%, (ii) an anhydride functionalized, chlorinated olefin-based polymer that has a chlorine content from 10 to 35 wt%, based on the total weight of the anhydride functionalized, chlorinated olefin-based polymer ; and (iii) a non-aromatic and nonchlorinated solvent selected from the group consisting of the following: methyl cyclohexane, ethyl cyclohexane, methyl ethyl ketone, ethyl acetate, butyl acetate, and combinations thereof, the first composition having a Brookfield viscosity (solution) at 26°C from 10 cP to 100 cP; and c) a non-polar olefin-based layer formed from a second composition comprising at least one non-polar olefin-based polymer, and the adhesive layer coated onto the fabric substrate layer and the non-polar olefin-based polymer layer laminated onto the adhesive layer, and wherein the fabric substrate layer is a woven polymeric material. a) a fabric substrate layer; b) an adhesive layer which is formed from a first composition comprising (i) a thermoplastic elastomer selected from the group consisting of maleic anhydride functionalized olefin-based polymer and a styrene ethylene butene styrene (SEBS) block copolymer with a styrene content of equal to or less than 35 wt%, (ii) an anhydride functionalized, chlorinated olefin-based polymer that has a chlorine content from 10 to 35 wt%, based on the total weight of the anhydride functionalized, chlorinated olefin-based polymer ; and (iii) a non-aromatic and nonchlorinated solvent selected from the group consisting of the following: methyl cyclohexane, ethyl cyclohexane, methyl ethyl ketone, ethyl acetate, butyl acetate, and combinations thereof, the first composition having a Brookfield viscosity (solution) at 26°C from 10 cP to 100 cP; and (i) a thermoplastic elastomer selected from the group consisting of maleic anhydride functionalized olefin-based polymer and a styrene ethylene butene styrene (SEBS) block copolymer with a styrene content of equal to or less than 35 wt%, (ii) an anhydride functionalized, chlorinated olefin-based polymer that has a chlorine content from 10 to 35 wt%, based on the total weight of the anhydride functionalized, chlorinated olefin-based polymer ; and (iii) a non-aromatic and nonchlorinated solvent selected from the group consisting of the following: methyl cyclohexane, ethyl cyclohexane, methyl ethyl ketone, ethyl acetate, butyl acetate, and combinations thereof, the first composition having a Brookfield viscosity (solution) at 26°C from 10 cP to 100 cP; and c) a non-polar olefin-based layer formed from a second composition comprising at least one non-polar olefin-based polymer, and the adhesive layer coated onto the fabric substrate layer and the non-polar olefin-based polymer layer laminated onto the adhesive layer, and
A method for treating root- or tuber juice, comprising a) a pretreatment of the root- or tuber juice to remove root- or tuber lipids, determined by the method of Matyash as described in the methods section before example 1, to a level below 28 g/kg dry weight, and to remove total suspended solids, expressed as the absorbance of a juice with a dry matter content of 4.5 wt.% at 620 nm, to a level below 2.1, which pretreatment comprises flocculation, sedimentation, flotation, centrifugation or micro filtration and which pretreatment does not substantially affect the native state of the protein in the root or tuber juice; b) cooling the root- or tuber juice to a temperature of -0.3 °C to -16 °C to form ice crystals; and c) separating the ice crystals from the root- or tuber juice to obtain, as a first root- or tuber juice product, a concentrated root- or tuber juice. a) a pretreatment of the root- or tuber juice to remove root- or tuber lipids, determined by the method of Matyash as described in the methods section before example 1, to a level below 28 g/kg dry weight, and to remove total suspended solids, expressed as the absorbance of a juice with a dry matter content of 4.5 wt.% at 620 nm, to a level below 2.1, which pretreatment comprises flocculation, sedimentation, flotation, centrifugation or micro filtration and which pretreatment does not substantially affect the native state of the protein in the root or tuber juice; b) cooling the root- or tuber juice to a temperature of -0.3 °C to -16 °C to form ice crystals; and c) separating the ice crystals from the root- or tuber juice to obtain, as a first root- or tuber juice product, a concentrated root- or tuber juice.
A lost-wax method of casting a product, comprising: attaching temperature control elements to a wax assembly , wherein the temperature control elements include thermal sink elements (100A1-100A5) that are steel blocks of different sizes and insulating elements that are ceramic with a lower conductivity than the remainder of the ceramic mold, and the method includes: attaching the thermal sink elements (100A1-100A5) to a part pattern section of the wax assembly , including side, front and back surfaces of the wax assembly ; positioning the thermal sink elements (100A1-100A5) closer to first portions of the part pattern section of the wax assembly than second portions of the part pattern section of the wax assembly , wherein the first portions are thicker than the second portions ; attaching the insulating elements to a sprue pattern section and gate-land pattern sections of the wax assembly ; encasing the wax assembly and the temperature control elements in a ceramic mold ; removing the wax assembly from the ceramic mold; filling the ceramic mold with molten material to form a cast part within the ceramic mold ; and separating the ceramic mold and the cast part from each other. attaching temperature control elements to a wax assembly , wherein the temperature control elements include thermal sink elements (100A1-100A5) that are steel blocks of different sizes and insulating elements that are ceramic with a lower conductivity than the remainder of the ceramic mold, and the method includes: attaching the thermal sink elements (100A1-100A5) to a part pattern section of the wax assembly , including side, front and back surfaces of the wax assembly ; positioning the thermal sink elements (100A1-100A5) closer to first portions of the part pattern section of the wax assembly than second portions of the part pattern section of the wax assembly , wherein the first portions are thicker than the second portions ; attaching the insulating elements to a sprue pattern section and gate-land pattern sections of the wax assembly ; encasing the wax assembly and the temperature control elements in a ceramic mold ; removing the wax assembly from the ceramic mold; filling the ceramic mold with molten material to form a cast part within the ceramic mold ; and separating the ceramic mold and the cast part from each other. attaching the thermal sink elements (100A1-100A5) to a part pattern section of the wax assembly , including side, front and back surfaces of the wax assembly ; positioning the thermal sink elements (100A1-100A5) closer to first portions of the part pattern section of the wax assembly than second portions of the part pattern section of the wax assembly , wherein the first portions are thicker than the second portions ; attaching the insulating elements to a sprue pattern section and gate-land pattern sections of the wax assembly ; encasing the wax assembly and the temperature control elements in a ceramic mold ; removing the wax assembly from the ceramic mold; filling the ceramic mold with molten material to form a cast part within the ceramic mold ; and separating the ceramic mold and the cast part from each other.
Roll door unit for covering a door opening comprising a flexible door panel , a rotatable roll shaft for rolling-up the flexible door panel , side frames , mounting flanges for mounting the roll shaft to the side frames , the mounting flanges being connected to the side frames , a connecting element for connecting a motor unit to the roll shaft , and supporting beams , being shorter than the side frames , being connected to the side frames for supporting the side frames in mounted state and being connected or connectable to a wall or ground, whereby a longitudinal axis of the roll shaft is positioned in alignment with a plane being spanned by the supporting beams , characterized in that , the mounting flanges are arranged vertically above the supporting beams , but not directly connected to the supporting beams , and wherein the supporting beams and the mounting flanges are arranged at a distance from one another in such a way, that in mounted state forces exerted by the roll shaft are introduced into the supporting beams indirectly through the side frames .
A fastener , comprising: an elongated fastener body having a first end and an opposed second end , with an external surface extending between the first end and the second end ; and a coating material disposed on at least a portion the external surface, wherein the coating material is a pressure-sensitive hot melt comprising a styrene block copolymer (SBC), styrene-butadiene-styrene (SBS), styrene-isoprene-styrene (SIS), styrene-ethylene/ butylene-styrene (SEBS), or styrene-ethylene/ propylene (SEP), wherein the coating material has a melt temperature of at least 166 °C (330 °F), and wherein the coating material displays a viscosity of less than 1 Pa·s, measured at a shear rate of 1000 Hz and at a temperature of 66 °C (150°F). an elongated fastener body having a first end and an opposed second end , with an external surface extending between the first end and the second end ; and a coating material disposed on at least a portion the external surface, wherein the coating material is a pressure-sensitive hot melt comprising a styrene block copolymer (SBC), styrene-butadiene-styrene (SBS), styrene-isoprene-styrene (SIS), styrene-ethylene/ butylene-styrene (SEBS), or styrene-ethylene/ propylene (SEP), wherein the coating material has a melt temperature of at least 166 °C (330 °F), and wherein the coating material displays a viscosity of less than 1 Pa·s, measured at a shear rate of 1000 Hz and at a temperature of 66 °C (150°F).
Method of fabrication of a surface acoustic wave device comprising the steps of (a) providing a piezoelectric structure ; (b) providing a dielectric structure ; characterized in that step (b) comprises a step (b1) of metalizing (S22, S32) the dielectric structure, performed by metal deposition, and in that the step (b) comprises a step of forming a dielectric layer prior to the metal deposition at a formation temperature, the formation temperature being greater than the diffusion temperature of the deposited metal into either the dielectric layer or the piezoelectric structure , and the method further comprising a step of (c) bonding (S24, S34) the metalized dielectric structure to the piezoelectric structure. (a) providing a piezoelectric structure ; (b) providing a dielectric structure ; characterized in that step (b) comprises a step (b1) of metalizing (S22, S32) the dielectric structure, performed by metal deposition, and in that the step (b) comprises a step of forming a dielectric layer prior to the metal deposition at a formation temperature, the formation temperature being greater than the diffusion temperature of the deposited metal into either the dielectric layer or the piezoelectric structure , and the method further comprising a step of (c) bonding (S24, S34) the metalized dielectric structure to the piezoelectric structure.
A system comprising: a hydraulic pressure exchanger configured to exchange pressures between a first fluid and a second fluid , wherein a first pressure of the first fluid is greater than a second pressure of the second fluid ; and one or more filters coupled to the hydraulic pressure exchanger characterized in that a pathway within a housing of the hydraulic pressure exchanger enables a portion of the first fluid to be diverted to be filtered by the one or more filters to produce a lubrication fluid to be used by the hydraulic pressure exchanger . a hydraulic pressure exchanger configured to exchange pressures between a first fluid and a second fluid , wherein a first pressure of the first fluid is greater than a second pressure of the second fluid ; and one or more filters coupled to the hydraulic pressure exchanger characterized in that a pathway within a housing of the hydraulic pressure exchanger enables a portion of the first fluid to be diverted to be filtered by the one or more filters to produce a lubrication fluid to be used by the hydraulic pressure exchanger .
An apparatus for dispensing a fluid from a fluid supply, comprising an actuator body , an actuator at least partially mounted within the actuator body, a valve stem coupled for movement with the actuator , a fluid body including a fluid chamber capable of fluid communication with the fluid supply and with an outlet, the valve stem extending from the actuator body into the fluid chamber when the actuator body and the fluid body are connected, for dispensing the fluid from the fluid chamber through the outlet, a first coupling element on the actuator body, a second coupling element on the fluid body, and a member configured to connect and disconnect the actuator body and the fluid body with respect to each other, characterised in that the connect member is a quick connect member configured to selectively fully engage and fully disengage the first and second coupling elements with one another, the quick connect member comprising a slidable element adapted to engage with the first and second coupling elements.
Method for determining a deviation of a time of a camera from a time of a timer, comprising the following steps: - transmitting (S1) a message from the camera to the timer, - documenting the time of the camera at the point in time at which the message is transmitted, - receiving the message by means of the timer, - documenting the time the timer at the point in time at which the message is received, - transmitting (S2) a response from the timer to the camera , wherein the response contains the time of the timer at the point in time at which the message is received and the time of the timer at the point in time at which the response is transmitted, - receiving the response by means of the camera , - documenting the time of the camera at the point in time at which the response is received, - calculating the transmission time of the message or of the response on the basis of the time of the camera at the point in time at which the message is transmitted, the time of the timer at the point in time at which the message is received, the time of the timer at the point in time at which the response is transmitted and the time of the camera at the point in time at which the response is received, and - calculating the deviation of the time of the camera from the time of the timer on the basis of the transmission time of the message, the time of the camera at the point in time at which the message is transmitted and the time of the timer at the point in time at which the message is received. - transmitting (S1) a message from the camera to the timer, - documenting the time of the camera at the point in time at which the message is transmitted, - receiving the message by means of the timer, - documenting the time the timer at the point in time at which the message is received, - transmitting (S2) a response from the timer to the camera , wherein the response contains the time of the timer at the point in time at which the message is received and the time of the timer at the point in time at which the response is transmitted, - receiving the response by means of the camera , - documenting the time of the camera at the point in time at which the response is received, - calculating the transmission time of the message or of the response on the basis of the time of the camera at the point in time at which the message is transmitted, the time of the timer at the point in time at which the message is received, the time of the timer at the point in time at which the response is transmitted and the time of the camera at the point in time at which the response is received, and - calculating the deviation of the time of the camera from the time of the timer on the basis of the transmission time of the message, the time of the camera at the point in time at which the message is transmitted and the time of the timer at the point in time at which the message is received.