mhurhangee/patent-ind-claim-en huggingface dataset:
A bracket packaging cartridge, comprising: a cartridge body , an inner support and a cover body , wherein a placement cavity is arranged on the cartridge body , the inner support is arranged in the placement cavity, the inner support is provided with a plurality of bracket placement grooves , each bracket placement groove is adapted to place a bracket ; and the bracket placement groove includes a placement opening portion , placement side portions and a placement bottom portion , the placement side portions of the bracket placement groove include a respective top edge and a respective bottom edge, wherein the top edge is connected to the placement opening portion of the bracket placement groove , and the bottom edge is connected to the placement bottom portion of the bracket placement groove , characterized in that the placement side portions of the bracket placement groove include a first placement side portion and a second placement side portion , wherein the first placement side portion is opposite to the second placement side portion ; the first placement side portion is provided with a first retaining protrusion at the bottom edge of the first placement side portion , the first retaining protrusion protrudes from the first placement side portion towards the second placement side portion , and a retaining space is provided between the first retaining protrusion and the placement bottom portion of the bracket placement groove ; and the second placement side portion is provided with a second retaining protrusion at the bottom edge of the second placement side portion , the second retaining protrusion protrudes from the second placement side portion towards the first placement side portion , and another retaining space is provided between the second retaining protrusion and the placement bottom portion of the bracket placement groove , and the second retaining protrusion is opposite to the first retaining protrusion ; the placement side portions of the bracket placement groove further include a third placement side portion and a fourth placement side portion opposite to the third placement side portion ; and each of the third placement side portion and the fourth placement side portion includes a bottom edge, and a top edge gradually inclined in a direction towards the bottom edge, angles formed respectively by the placement bottom portion of the bracket placement groove with the third placement side portion and the fourth placement side portion are between 120° and 150° so as to enable a clamping tool to enter the bracket placement groove smoothly.
A composition comprising a population of immune effector cells engineered to express a CAR for use, in combination with an LSD1 inhibitor, in a method of treating a disease associated with the expression of a tumor antigen in a subject, said method comprising administering to said subject an LSD1 inhibitor and a population of immune effector cells engineered to express a CAR, wherein the population of immune effector cells comprises, e.g., consists of, T cells, wherein the disease associated with expression of a tumor antigen is chosen from a proliferative disease, a precancerous condition, and a cancer.
A system configured for use in horizontal directional drilling that includes a drill string that extends from a drill rig to an inground tool such that extension and retraction of the drill string moves the inground tool through the ground during an inground operation, said system comprising: a transmitter configured to be supported within said inground tool, said transmitter including: an antenna ; one or more sensors configured to measure one or more operational parameters characterizing the status of the inground tool ; a processor configured to produce, based on the sensor outputs, a multi-bit symbol stream (S0-S15) that is transmitted during said inground operation by said antenna at a plurality of frequencies, with each frequency representing a multi-bit symbol (SO-S15); and a portable device configured to be above ground, said portable device including: a receiver configured to receive said frequencies transmitted by said antenna , and a processor configured to recover said status of the inground tool from said received frequencies. a transmitter configured to be supported within said inground tool, said transmitter including: an antenna ; one or more sensors configured to measure one or more operational parameters characterizing the status of the inground tool ; a processor configured to produce, based on the sensor outputs, a multi-bit symbol stream (S0-S15) that is transmitted during said inground operation by said antenna at a plurality of frequencies, with each frequency representing a multi-bit symbol (SO-S15); and an antenna ; one or more sensors configured to measure one or more operational parameters characterizing the status of the inground tool ; a processor configured to produce, based on the sensor outputs, a multi-bit symbol stream (S0-S15) that is transmitted during said inground operation by said antenna at a plurality of frequencies, with each frequency representing a multi-bit symbol (SO-S15); and a portable device configured to be above ground, said portable device including: a receiver configured to receive said frequencies transmitted by said antenna , and a processor configured to recover said status of the inground tool from said received frequencies. a receiver configured to receive said frequencies transmitted by said antenna , and a processor configured to recover said status of the inground tool from said received frequencies.
A bimodal ethylene-co-1-hexene copolymer composition having a density from 0.945 to 0.960 gram per cubic centimeter (g/cm 3 ), measured according to ASTM D792-13, Method B; a molecular mass dispersity (M w /M n ), Ð M , from 11.0 to 25.0, wherein M w and M n are measured according to the Gel Permeation Chromatography (GPC) Test Method; and consisting of a higher molecular weight ethylene-co-1-hexene copolymer component (HMW component), having a molecular weight distribution (Mw/Mn) greater than 3.75 (> 3.75), and a lower molecular weight polyethylene homopolymer or a lower molecular weight ethylene-co-1-hexene copolymer component (LMW component), wherein the LMW component has a molecular weight distribution (Mw/Mn) from 2.75 to 3.35; and having a component fraction split characterized by a weight fraction of the HMW component from 35.0 to 65.0 wt% and a weight fraction of the LMW component fraction from 65.0 to 35.0 wt%, respectively, of the combined weight of the HMW and LMW components, measured according to the GPC Test Method; and wherein when in melted form at 190° C., the bimodal ethylene- co -1-hexene copolymer composition is characterized by properties (a), (b), and optionally (c): (a) a melt flow index(5 kg) (I 5 or MFI 5 ) from 0.15 to 0.30 gram per 10 minutes (g/10 min.), (b) a peak melt strength from 18 to 29 centiNewtons (cN), and, optionally, (c) a shear thinning index, η 0.01/ η 100 , from 96 to 125; and when in solid form the bimodal ethylene- co -1-hexene copolymer composition is characterized by properties (d) and (e): (d) a strain hardening modulus from 50.0 to 75 megapascals (MPa) and (e) an accelerated full-notch creep test (FNCT) performance from 401 to 700.0 hours; wherein the melt flow index (5 kg) is measured according to ASTM D1238-13 (190° C., 5.0 kg), the shear thinning index is measured according to Shear Thinning Index Test Method (190° C.), the peak melt strength is measured at the highest peak in a plot of melt strength versus a range of velocity from 10 to 50 millimeters per second (mm/s) according to Melt Strength Test Method, the strain hardening modulus is measured according to ISO 18488:2015, and the accelerated FNCT performance is measured according to ISO 16770:2004 at 90° C and under an actual stress of 5.0 MPa in 2 weight percent (wt%) lauramine oxide in water.
An electric system comprising a first capacitive circuit and converter equipment for transferring electric energy between the first capacitive circuit and one or more electric machines, the converter equipment being configured to convert first direct voltage (U DC1 ) of the first capacitive circuit into one or more voltages suitable for the one or more electric machines, the electric system further comprising: - a second capacitive circuit , - a direct voltage converter for transferring electric energy between the first and second capacitive circuits, and - a control system comprising a first controller for controlling the direct voltage converter in response to changes of the first direct voltage, and a second controller for controlling the converter equipment in response to changes of second direct voltage (U DC2 ) of the second capacitive circuit, characterized in that the first controller and the second controller are configured so that the first controller is faster to react to the changes of the first direct voltage than the second controller to the changes of the second direct voltage so as to keep the first direct voltage on a first predetermined voltage range and to allow the second direct voltage to fluctuate in response to fluctuation of electric power transferred between the first capacitive circuit and the one or more electric machines. - a second capacitive circuit , - a direct voltage converter for transferring electric energy between the first and second capacitive circuits, and - a control system comprising a first controller for controlling the direct voltage converter in response to changes of the first direct voltage, and a second controller for controlling the converter equipment in response to changes of second direct voltage (U DC2 ) of the second capacitive circuit,
Fastening device for a blind, having a carrier , which is intended to be fastened on a part of a building, and having a retaining element , which is arranged beneath the carrier and is fastened thereon by means of a connecting element , wherein the retaining element is intended to be connected to a blind directly, or via a blind housing , and to carry said blind, wherein the connecting element engages through a through-passage bore in the carrier and a through-passage bore in an elastic, axially resilient insulating element , which is arranged above the carrier , wherein, on the one hand, the insulating element is supported on the carrier and, on the other hand, the connecting element is supported on the insulating element , and wherein, when the blind is not in the installed state, the retaining element is retained on the carrier , under a prestressing force, by a force acting from the insulating element , characterized in that the prestressing force is smaller than a force which, when the blind is in the installed state and fastened on the retaining element , acts on the retaining element counter to the prestressing force, in that the insulating element is arranged above the carrier , in that the connecting element engages, with an amount of play, through the through-passage bore in the carrier , and in that , when the blind is not in the installed state, the retaining element is retained on the carrier , under the prestressing force - directly or via an intermediate element - by a tensile force which acts on the retaining element from the insulating element , via the connecting element , in the direction of the carrier .
An injection mold for molding a flip-top closure , the flip-top closure having a body portion and a lid attached to the body portion by a living hinge , the injection mold comprising: a first mold portion for defining a first portion of the flip-top closure ; a second mold portion for defining a second portion of the flip-top closure ; a lid closing tool for closing the lid of the flip-top closure on the body portion after a molding of the flip-top closure in the injection mold and before an ejection of the flip-top closure from the injection mold , wherein during the molding of the flip-top closure the lid closing tool is disposed at least in part in a cavity defined by at least one of the first and second mold portions (104, 304; 102, 302), characterized in that a first linear actuator is operatively connected to the lid closing tool for moving the lid closing tool about a first axis , and a second linear actuator is operatively connected to the lid closing tool for moving the lid closing tool about a second axis wherein the first axis is perpendicular to the second axis , the first and second linear actuators (160, 360; 162, 362) are controllable to move the lid closing tool along a lid closing path for closing the lid of the flip-top closure on the body portion , wherein a velocity of the lid closing tool and a force applied by the lid closing tool are controllable and adjustable by controlling the first and second linear actuators (160, 360; 162, 362), and the first and second linear actuators (160, 360; 162, 362) each comprise a servomotor (166, 366; 182, 382). a first mold portion for defining a first portion of the flip-top closure ; a second mold portion for defining a second portion of the flip-top closure ; a lid closing tool for closing the lid of the flip-top closure on the body portion after a molding of the flip-top closure in the injection mold and before an ejection of the flip-top closure from the injection mold , wherein during the molding of the flip-top closure the lid closing tool is disposed at least in part in a cavity defined by at least one of the first and second mold portions (104, 304; 102, 302), characterized in that a first linear actuator is operatively connected to the lid closing tool for moving the lid closing tool about a first axis , and a second linear actuator is operatively connected to the lid closing tool for moving the lid closing tool about a second axis wherein the first axis is perpendicular to the second axis , the first and second linear actuators (160, 360; 162, 362) are controllable to move the lid closing tool along a lid closing path for closing the lid of the flip-top closure on the body portion , wherein a velocity of the lid closing tool and a force applied by the lid closing tool are controllable and adjustable by controlling the first and second linear actuators (160, 360; 162, 362), and the first and second linear actuators (160, 360; 162, 362) each comprise a servomotor (166, 366; 182, 382).
A pseudo force sense generation apparatus comprising: a base ; first to nth vibrators (12-i, 31-i, 52-i) that make asymmetrical motions where relative positions of the vibrators (12-i, 31-i, 52-i) to the base are fixed; and an electronic device unit having a fixed relative position to the base, wherein an ith vibrator (12-i, 31-i, 52-i) included in the first to the nth vibrators is each capable of presenting pseudo force sense in an ith straight-line direction, where n is an integer of two or more, and i = 1, ..., n, the ith straight-line direction is a straight-line direction along one of sides of a virtual polygon (P1, P2, P3, P4, P5) having three or more sides on a same plane, and the pseudo force sense generation apparatus is configured to make a rotary motion by driving of the vibrators (12-i, 31-i, 52-i), wherein the rotary motion is centered at a center of gravity of the pseudo force sense generation apparatus or its vicinity, so that an inertia moment around a rotation center of the rotary motion is minimized or reduced, characterized in that: the electronic device unit is arranged inside the virtual polygon (P1, P2, P3, P4, P5), a mass per unit volume of the electronic device unit is greater than the mass per unit volume of the base , and a weight distribution of the pseudo force sense generation apparatus is biased toward the center of gravity. a base ; first to nth vibrators (12-i, 31-i, 52-i) that make asymmetrical motions where relative positions of the vibrators (12-i, 31-i, 52-i) to the base are fixed; and an electronic device unit having a fixed relative position to the base, wherein an ith vibrator (12-i, 31-i, 52-i) included in the first to the nth vibrators is each capable of presenting pseudo force sense in an ith straight-line direction, where n is an integer of two or more, and i = 1, ..., n, the ith straight-line direction is a straight-line direction along one of sides of a virtual polygon (P1, P2, P3, P4, P5) having three or more sides on a same plane, and the pseudo force sense generation apparatus is configured to make a rotary motion by driving of the vibrators (12-i, 31-i, 52-i), wherein the rotary motion is centered at a center of gravity of the pseudo force sense generation apparatus or its vicinity, so that an inertia moment around a rotation center of the rotary motion is minimized or reduced, characterized in that: the electronic device unit is arranged inside the virtual polygon (P1, P2, P3, P4, P5), a mass per unit volume of the electronic device unit is greater than the mass per unit volume of the base , and a weight distribution of the pseudo force sense generation apparatus is biased toward the center of gravity. the electronic device unit is arranged inside the virtual polygon (P1, P2, P3, P4, P5), a mass per unit volume of the electronic device unit is greater than the mass per unit volume of the base , and a weight distribution of the pseudo force sense generation apparatus is biased toward the center of gravity.
Method for controlling a spark-ignition heat engine of a motor vehicle comprising an automatic stop and restart system in which an effective ignition advance is applied during start-up of the heat engine, this start-up comprising a phase (P1) of assisted rotation of the thermal engine directly followed by a phase (P2) of autonomous operation of the engine, in which, when the start-up of the combustion engine is an automatic restart, during the phase (P1) of assisted rotation of the engine, the effective ignition advance is limited by an ignition advance minimum corresponding to a first predetermined threshold , then, when the autonomous operating phase begins, this minimum ignition advance evolves from the first predetermined minimum threshold towards a minimum combustion advance below which combustion is considered unstable and the effective ignition advance converges towards an ignition advance setpoint limited by this minimum ignition advance , characterized in that the first predetermined threshold is less than the minimum combustion advance .
Method for producing a pellet preferably intended for subsequent chemical analysis, wherein said method comprises a) melting a material stream, b) shapelessly cooling the molten material stream to obtain a glassy material, c) subsequently grinding the solidified glassy material d) and pressing at least some of the ground material to obtain a pressed pellet, characterized in that the cooling of the molten material stream is achieved by pouring into a small roller mill which simultaneously serves to comminute the unshaped molten material stream and in that the subsequent grinding is performed by means of a fine mill. wherein said method comprises a) melting a material stream, b) shapelessly cooling the molten material stream to obtain a glassy material, c) subsequently grinding the solidified glassy material d) and pressing at least some of the ground material to obtain a pressed pellet, a) melting a material stream, b) shapelessly cooling the molten material stream to obtain a glassy material, c) subsequently grinding the solidified glassy material d) and pressing at least some of the ground material to obtain a pressed pellet, characterized in that the cooling of the molten material stream is achieved by pouring into a small roller mill which simultaneously serves to comminute the unshaped molten material stream and in that the subsequent grinding is performed by means of a fine mill.
A method of processing sensory reports of one or more sensing elements in a radio network, said method comprising: receiving, at a network node, a sensory report from a sensing element operating in multiple radio access technologies, said sensory report including sensory data associated with multiple radio channels relative to at least one radio element; identifying, at the network node, said sensing element's identity and determining if said sensory report has been tagged with a code generated by a predetermined code generator; responsive to said identifying and said determining, authenticating said sensory report; and correlating, at the network node, said sensory report from said sensing element with at least one of one or more previous sensory reports from said sensing element and one or more previous sensory reports received from another sensing element to facilitate alleviating interference or congestion. receiving, at a network node, a sensory report from a sensing element operating in multiple radio access technologies, said sensory report including sensory data associated with multiple radio channels relative to at least one radio element; identifying, at the network node, said sensing element's identity and determining if said sensory report has been tagged with a code generated by a predetermined code generator; responsive to said identifying and said determining, authenticating said sensory report; and correlating, at the network node, said sensory report from said sensing element with at least one of one or more previous sensory reports from said sensing element and one or more previous sensory reports received from another sensing element to facilitate alleviating interference or congestion.
Lock nut comprising a nut body , which has a threaded portion with an inner thread , a peripheral shoulder adjoining thereon, and a collar surrounding the shoulder, and comprising an annular disc made of metal, wherein the collar is bent inward and an annular groove , in which the annular disc is accommodated, is formed between the bent-over collar and the shoulder, an inner thread corresponding to the inner thread of the threaded portion is cut into the inner periphery of the annular disc , and the inner thread of the annular disc is offset relative to the inner thread of the nut body by an axial distance, characterized in that a series of projections (40, 44, 60', 60") and/or depressions , which project or are formed in the axial direction, is configured on the shoulder or on the annular disc where the annular disc and the shoulder overlap each other, and are arranged distributed across the periphery of the shoulder or of the annular disc. the collar is bent inward and an annular groove , in which the annular disc is accommodated, is formed between the bent-over collar and the shoulder, an inner thread corresponding to the inner thread of the threaded portion is cut into the inner periphery of the annular disc , and the inner thread of the annular disc is offset relative to the inner thread of the nut body by an axial distance, characterized in that a series of projections (40, 44, 60', 60") and/or depressions , which project or are formed in the axial direction, is configured on the shoulder or on the annular disc where the annular disc and the shoulder overlap each other, and are arranged distributed across the periphery of the shoulder or of the annular disc.
A spacer for forming a spacing between glass panes, wherein said spacer comprises a body comprising a first and a second side surface , an inner top surface and a lower outer surface , wherein said spacer comprises a gas-impermeable barrier foil extending at least from the first side surface to the second side surface of said body and a stiffening material (111, 112, 113, 114, x1) arranged between said barrier foil and at least one side surface of said spacer body , wherein said stiffening material extends along the length of said spacer body , characterised in that said at least one side surface of said spacer comprises an outer layer of barrier foil and a stiffening material sandwiched between the barrier foil and the at least one side surface of said body .