mhurhangee/patent-ind-claim-en huggingface dataset:
Attachment system for an osteosynthesis device for spinal treatment, having a main body comprising a first receiving region which is designed to receive a connecting element and which is designed as a U-shaped fork head which has a first fork leg and a second fork leg a second receiving region which is designed to receive a bone anchor , a third receiving region having a linear transverse opening , the transverse opening having a first opening at its first end and a second opening at its second end, and an axial opening for receiving and guiding an adjusting element , further comprising a fixing element for fixing the bone anchor comprising a first fixing pin , and a load receiving area , wherein the first fixing pin can be inserted into the transverse opening via the first opening and the fixing element is longer than the transverse opening , and wherein the first fixing pin has a contact surface at the end remote to the load receiving area , and an adjusting element having a load introduction region , wherein the adjusting element can be positioned and guided by means of the axial opening in such a way that, by means of the load introduced through the load introduction region onto the load receiving area , the fixing element can be guided along the transverse opening in the direction of the second receiving area . a first receiving region which is designed to receive a connecting element and which is designed as a U-shaped fork head which has a first fork leg and a second fork leg a second receiving region which is designed to receive a bone anchor , a third receiving region having a linear transverse opening , the transverse opening having a first opening at its first end and a second opening at its second end, and an axial opening for receiving and guiding an adjusting element , further comprising a fixing element for fixing the bone anchor comprising a first fixing pin , and a load receiving area , wherein the first fixing pin can be inserted into the transverse opening via the first opening and the fixing element is longer than the transverse opening , and wherein the first fixing pin has a contact surface at the end remote to the load receiving area , and an adjusting element having a load introduction region , wherein the adjusting element can be positioned and guided by means of the axial opening in such a way that, by means of the load introduced through the load introduction region onto the load receiving area , the fixing element can be guided along the transverse opening in the direction of the second receiving area .
System for characterising a NOR-type flash memory cell provided with a floating gate transistor , the floating gate transistor comprising a gate electrode (G) and a drain electrode (D), the characterisation system comprising: - a voltage generator having an output (ch0) connected to the gate electrode (G) and configured to generate as output an erase signal of the memory cell ; and - a dynamic measurement apparatus comprising a first channel (ch1) connected to the gate electrode (G) and a second channel (ch2) connected to the drain electrode (D), the dynamic measurement apparatus being configured to generate on the first and second channels (ch1, ch2) write signals of the memory cell and to measure a current (I D ) flowing in the drain electrode (D) during the writing of the memory cell; system characterised in that only the gate electrode (G) of the floating gate transistor is connected to the voltage generator and to the dynamic measurement apparatus by the intermediary of a switch , the switch being of the CMOS type and able to switch between a first position, in which the output (ch0) of the voltage generator is electrically coupled to the gate electrode (G), and a second position, in which the first channel (ch1) of the dynamic measurement apparatus is electrically coupled to the gate electrode (G), and in that the dynamic measurement apparatus is further configured to generate a synchronisation signal (trig) transmitted to the voltage generator and to the switch in order to simultaneously control the generation of the erase signal and the switching of the switch to the first position. - a voltage generator having an output (ch0) connected to the gate electrode (G) and configured to generate as output an erase signal of the memory cell ; and - a dynamic measurement apparatus comprising a first channel (ch1) connected to the gate electrode (G) and a second channel (ch2) connected to the drain electrode (D), the dynamic measurement apparatus being configured to generate on the first and second channels (ch1, ch2) write signals of the memory cell and to measure a current (I D ) flowing in the drain electrode (D) during the writing of the memory cell;
A container suitable for at least one person as a seating area, having a container outercontour, comprising a container volume enclosed by the container outercontour having - an energy storage container arranged in the container volume, having a storage container volume which is limited by at least one energy storage container wall and completely protected against external contact, wherein the energy storage container is designed for the complete reception of at least one portable, rechargeable electrical energy storage (G); - at least one charging port arranged in the energy storage container , for the portable, rechargeable electrical energy storage (G); - a charging electronics device arranged in the container volume, for charging control of a portable, rechargeable electrical energy storage (G) connected to the charging port , - an electrical connection for feeding the charging electronics device of the container with electrical energy from an external power supply network and - a flap formed in the at least one energy storage container wall , by which the energy storage container is openable and lockable in relation to the environment of the container, wherein the flap is dimensioned in such a way that the portable, rechargeable electrical energy storage can be inserted into the energy storage container and can be taken out of the energy storage container , wherein the charging electronics device is arranged outside the energy storage container in the container volume, characterized in that the flap has a locking mechanism and a flap seal , wherein the flap , the flap seal and the at least one energy storage container wall are designed as components which at least satisfy the fire resistance class F30, the flap is formed as lid of the energy storage container and at the same time as lid of the container and the flap forms a seat surface for at least one person on the container.. - an energy storage container arranged in the container volume, having a storage container volume which is limited by at least one energy storage container wall and completely protected against external contact, wherein the energy storage container is designed for the complete reception of at least one portable, rechargeable electrical energy storage (G); - at least one charging port arranged in the energy storage container , for the portable, rechargeable electrical energy storage (G); - a charging electronics device arranged in the container volume, for charging control of a portable, rechargeable electrical energy storage (G) connected to the charging port , - an electrical connection for feeding the charging electronics device of the container with electrical energy from an external power supply network and - a flap formed in the at least one energy storage container wall , by which the energy storage container is openable and lockable in relation to the environment of the container, wherein the flap is dimensioned in such a way that the portable, rechargeable electrical energy storage can be inserted into the energy storage container and can be taken out of the energy storage container ,
A stack-folding typed electrode assembly, comprising: an electrode assembly having a structure in which a plurality of unit cells overlaps and a continuous folding separator is interposed between each overlapping part, wherein the continuous folding separator comprises a continuous porous polymer substrate having pores; and an organic-inorganic porous coating layer formed of a mixture of inorganic particles and a binder polymer, wherein the organic-inorganic porous coating layer is formed only at areas where unit cells overlap, while only the porous substrate is present at an area where unit cells do not overlap. an electrode assembly having a structure in which a plurality of unit cells overlaps and a continuous folding separator is interposed between each overlapping part, wherein the continuous folding separator comprises a continuous porous polymer substrate having pores; and an organic-inorganic porous coating layer formed of a mixture of inorganic particles and a binder polymer, wherein the organic-inorganic porous coating layer is formed only at areas where unit cells overlap, while only the porous substrate is present at an area where unit cells do not overlap.
A PE-RT pipe made from a linear low density polyethylene (LLDPE) composition comprising at least 50 mole percent ethylene derived units and one or more alpha-olefin co-monomer derived units, wherein the polyethylene composition has a molecular weight distribution (M w /M n ) of from 2 to 6, a long chain branching index g'vis of from 0.85 to 0.99, a density of from 0.934 to 0.960 g/cm 3 , and a shear thinning ratio of 1.0 to 100, wherein the one or more alpha-olefin co-monomer derived units is derived from propylene, butene, l-pentene; 1-pentene with one or more methyl, ethyl, or propyl substituents; 1 -hexene; 1 -hexene with one or more methyl, ethyl, or propyl substituents; l-heptene; l-heptene with one or more methyl, ethyl, or propyl substituents; 1-octene with one or more methyl, ethyl, or propyl substituents; 1-nonene; l-nonene with one or more methyl, ethyl, or propyl substituents; ethyl, methyl, or dimethyl-substituted l-decene; l-dodecene; or a combination thereof and wherein the polyethylene composition has a tensile strength at 5% strain that satisfies the following relationship: y > 6 .1395 * x 0 .0579 + 0 .2 , wherein y is the tensile strength (MPa) at 5% strain at 70 °C and x is the strain rate (s -1 ).
A method of recovering rare cells contained in a cell suspension into a microchamber(s) by introducing said cell suspension to a cell-spreading device in which a flow path is formed on a microchamber chip comprising said microchamber (s) capable of storing and retaining cells, said method is characterized by comprising: the step (X) of spreading cells on said microchamber chip by allowing said cell suspension to flow in said flow path of said cell-spreading device ; and the step (Y) of intermittently providing a moving force that moves the positions of said cells thus spread on said microchamber chip wherein the said moving force is intermittently provided by performing intermittent liquid feeding in which a cycle of feeding a liquid and stopping said feeding is repeated. the step (X) of spreading cells on said microchamber chip by allowing said cell suspension to flow in said flow path of said cell-spreading device ; and the step (Y) of intermittently providing a moving force that moves the positions of said cells thus spread on said microchamber chip wherein the said moving force is intermittently provided by performing intermittent liquid feeding in which a cycle of feeding a liquid and stopping said feeding is repeated.
A converter (1a.1c) for single-phase and three-phase operation, comprising: - three branches connected in parallel and each having two rectifying elements (D) in series, the direction of current flow in the rectifying elements (D) pointing away from a low end (FP), - three mains-side coils (La, Lb, Lc) which are connected between the two rectifying elements (D) of one branch each, characterized in that a first coil (La) is provided on the mains-side with a switch (S) which connects the first coil (La) to the mains during three-phase operation and connects it via a capacitor (C) a) to the low end (FP) or b) on the mains side to another coil (Lb, Lc) during single-phase operation. - three branches connected in parallel and each having two rectifying elements (D) in series, the direction of current flow in the rectifying elements (D) pointing away from a low end (FP), - three mains-side coils (La, Lb, Lc) which are connected between the two rectifying elements (D) of one branch each, a) to the low end (FP) or b) on the mains side to another coil (Lb, Lc) during single-phase operation.
Rotor for a turbomachine compressor , such as an aircraft turbojet engine, comprising at least two segments substantially axisymmetric in shape and made of composite material, the rotor being characterised in that it comprises a metal crown supporting a row of blades and axially interposed between the two segments , the crown having an upstream lug and a downstream lug , each of the lugs comprising a moulding insert embedded in one of the two opposing segments .
A display apparatus comprising: a substrate including a display area (DA) in which a display element is arranged; a first thin film transistor (T1) arranged in the display area (DA) and including a first semiconductor layer (AS1) including silicon and a first control electrode (G1) insulated from the first semiconductor layer (AS1); a first interlayer insulating layer covering the first control electrode (G1); a second thin film transistor (T4) arranged on the first interlayer insulating layer and including a second semiconductor layer (A04) including an oxide semiconductor and a second control electrode (G4) insulated from the second semiconductor layer (A04); a second interlayer insulating layer covering the second control electrode (G4); a node connection line arranged on the second interlayer insulating layer and connected to the first control electrode (G1) via a first contact hole (CNT1); a first planarization layer covering the node connection line ; and a shielding electrode arranged on the first planarization layer to overlap the node connection line . a substrate including a display area (DA) in which a display element is arranged; a first thin film transistor (T1) arranged in the display area (DA) and including a first semiconductor layer (AS1) including silicon and a first control electrode (G1) insulated from the first semiconductor layer (AS1); a first interlayer insulating layer covering the first control electrode (G1); a second thin film transistor (T4) arranged on the first interlayer insulating layer and including a second semiconductor layer (A04) including an oxide semiconductor and a second control electrode (G4) insulated from the second semiconductor layer (A04); a second interlayer insulating layer covering the second control electrode (G4); a node connection line arranged on the second interlayer insulating layer and connected to the first control electrode (G1) via a first contact hole (CNT1); a first planarization layer covering the node connection line ; and a shielding electrode arranged on the first planarization layer to overlap the node connection line .
A method for recycling chlorine in the production of titanium tetrachloride, the method is comprised of the following steps: a) contacting chlorine with a titanium-bearing feedstock which comprises iron to obtain a chloride mixture comprising ferrous chloride and titanium tetrachloride, b) separating the ferrous chloride from the chloride mixture, c) contacting the ferrous chloride with an aqueous solution of concentrated sulfuric acid to obtain iron sulfate and gaseous hydrochloric acid, d) converting at least a portion of the obtained gaseous hydrochloric acid into chlorine, and e) using at least a portion of the chlorine obtained in step d) in step a). a) contacting chlorine with a titanium-bearing feedstock which comprises iron to obtain a chloride mixture comprising ferrous chloride and titanium tetrachloride, b) separating the ferrous chloride from the chloride mixture, c) contacting the ferrous chloride with an aqueous solution of concentrated sulfuric acid to obtain iron sulfate and gaseous hydrochloric acid, d) converting at least a portion of the obtained gaseous hydrochloric acid into chlorine, and e) using at least a portion of the chlorine obtained in step d) in step a).
A composition comprising at least the following: A) 0.5 to 40 wt% of at least one polymer selected from the following: i) an anhydride and/or carboxylic acid functionalized, chlorinated olefin-based polymer; or ii) a styrene-based polymer and/or a functionalized styrene-based polymer; or iii) a combination of i) and ii); B) 0.5 to 40 wt% of an amide wax slurry; C) 40 to 94 wt% of an organic solvent; and D) 5 to 15 wt% of a tackifier; each wt% based on the total weight of the composition. A) 0.5 to 40 wt% of at least one polymer selected from the following: i) an anhydride and/or carboxylic acid functionalized, chlorinated olefin-based polymer; or ii) a styrene-based polymer and/or a functionalized styrene-based polymer; or iii) a combination of i) and ii); i) an anhydride and/or carboxylic acid functionalized, chlorinated olefin-based polymer; or ii) a styrene-based polymer and/or a functionalized styrene-based polymer; or iii) a combination of i) and ii); B) 0.5 to 40 wt% of an amide wax slurry; C) 40 to 94 wt% of an organic solvent; and D) 5 to 15 wt% of a tackifier;
A receptor assembly (1; 5) for a lightning protection system on a wind turbine blade , the receptor assembly in the form of a side receptor comprises one or more electrically conducting current carriers (6; 19) in the form of a receptor cylinder being arranged to carry lightning currents from a surface of the wind turbine blade to an internal part of the lightning protection system arranged within the wind turbine blade and one or more mounting bolts , wherein each of the current carriers is a metallic part arranged and dimensioned to surround at least a part of a mounting bolt at least a part of an external surface at one end of each current carrier is arranged to be a contact surface for mechanical and electrical contact to a receptor base (3; 16) when the receptor assembly is mounted within a wind turbine blade, wherein a bolt insulator is arranged around the head of the mounting bolt for ensuring electrical insulation between the mounting bolt and the receptor cylinder so that the lightning current is forced to pass through the contact surface rather than through the threads of the mounting bolt on its path from the side receptor to the side receptor base , in such a way that, in the case of a lightning impact on the receptor assembly, the vast majority of the lightning current passes through the one or more current carriers rather than through the one or more mounting bolts on its way through the receptor assembly. wherein each of the current carriers is a metallic part arranged and dimensioned to surround at least a part of a mounting bolt at least a part of an external surface at one end of each current carrier is arranged to be a contact surface for mechanical and electrical contact to a receptor base (3; 16) when the receptor assembly is mounted within a wind turbine blade, wherein a bolt insulator is arranged around the head of the mounting bolt for ensuring electrical insulation between the mounting bolt and the receptor cylinder so that the lightning current is forced to pass through the contact surface rather than through the threads of the mounting bolt on its path from the side receptor to the side receptor base , in such a way that, in the case of a lightning impact on the receptor assembly, the vast majority of the lightning current passes through the one or more current carriers rather than through the one or more mounting bolts on its way through the receptor assembly.
A scooter, comprising a front fork , the scooter further comprises a folding sleeve , a folding core , a folding seat , a folding lock and a folding pin , wherein the folding seat is fixed on the front fork , a lower portion of the folding core is rotatably connected into the folding seat by means of the folding pin in a folding manner, the folding sleeve is arranged outside the folding seat in a sheath manner, a sliding rail is arranged in the folding sleeve , a lock catch assembly is arranged on a middle portion of the folding core , a folding fastener matching the lock catch assembly is arranged on a front portion of a footboard , the folding lock is arranged on an upper portion of the folding core in a sheath manner, and the folding lock is provided with a sliding shaft ; during folding, the folding lock is rotated to enable the sliding shaft to be clamped into the sliding rail , and the folding sleeve is pulled upwards to enable the sliding shaft to vertically slide along the sliding rail , then the folding sleeve drives the folding core to be folded and rotated to fix the lock catch assembly on the folding core to the folding fastener in a buckle manner.
Roof covering, comprising a watertight sheet material from at least a plastic and at least one additive, such that the plastic comprises at least polyvinyl butyral (PVB), characterised in that at least a fire retardant containing ammonium polyphosphate (NH 4 PO 3 ) n and aluminium trihydrate (Al(OH) 3 ) is added thereto as additive, wherein polyvinyl butyral (PVB) and ammonium polyphosphate are used in the mixture in a weight ratio of 100 : 4-50 and wherein polyvinyl butyral (PVB) and aluminium trihydrate (ATH) are used in the mixture in a weight ratio of 100 : 40-50.
Device for applying a perforated protective film to a surface of a component , comprising a basic frame to which a supply roll for unwinding the protective film and a take-up roll for winding up a remaining film are connected, also having at least one deflecting roll , wherein the protective film is guided over the at least one deflecting roll , and also having at least one pressure roll , wherein the at least one pressure roll is provided for applying the protective film , wherein the basic frame consists substantially of a horizontal and a vertical basic structure, which are connected together at right angles, wherein a horizontally movable component receptacle is operatively connected to the horizontal basic structure , wherein a carriage that is horizontally movable on a horizontal linear guide is operatively connected to the vertical basic structure , wherein the supply roll , the take-up roll , the at least one deflection roll and the at least one pressure roll are connected to the carriage , and the supply roll , the take-up roll , the at least one deflection roll and the at least one pressure roll are mounted perpendicularly to the carriage , and also having a sensor which is designed to sense a marking with which the protective film is provided and which indicates the end of the component . wherein the basic frame consists substantially of a horizontal and a vertical basic structure, which are connected together at right angles, wherein a horizontally movable component receptacle is operatively connected to the horizontal basic structure , wherein a carriage that is horizontally movable on a horizontal linear guide is operatively connected to the vertical basic structure , wherein the supply roll , the take-up roll , the at least one deflection roll and the at least one pressure roll are connected to the carriage , and the supply roll , the take-up roll , the at least one deflection roll and the at least one pressure roll are mounted perpendicularly to the carriage , and also having a sensor which is designed to sense a marking with which the protective film is provided and which indicates the end of the component .