mhurhangee/patent-ind-claim-en huggingface dataset:
A concentrate extracting and slag reducing magnetic separator, comprising a tank fixedly arranged on a frame , wherein a permanent magnetic drum powered by a power unit is rotationally provided in the tank , a magnetic system fixed with respect to the tank is provided in the permanent magnetic drum , an ore entering side of the tank is connected to an ore feeding box, wherein: a coverage angle of the magnetic system ranges from 200 degrees to 280 degrees, the magnetic system is of a multi-magnetic pole structure, an area of the magnetic system close to the ore entering side of the tank is a magnetic system concentration area , and the magnetic system concentration area is located above an ore pulp level in the tank ; a plurality of rinsing water pipes are provided in an upstream position, corresponding to the magnetic system concentration area , in the tank , the plurality of rinsing water pipes are arranged at an outer side of the permanent magnetic drum and are located above the ore pulp level in the tank , a plurality of spray heads facing to the permanent magnetic drum are provided with intervals on each of the rinsing water pipes , and the spray heads on adjacent rinsing water pipes are staggered; and a plurality of strip-type magnetic sheets are provided with intervals on an inner wall of the permanent magnetic drum , and an extending direction of each of the magnetic sheets is consistent with an axial direction of the permanent magnetic drum , characterized in that , the ore feeding box is a pipe type ore feeding box , the pipe type ore feeding box comprises a pipe body having two closed ends arranged at the ore entering side of the tank , at least one ore feeding port is provided at a top portion of the pipe body, an ore drawing slot is provided at a bottom of the pipe body, an extending direction of the ore drawing slot is consistent with the axial direction of the permanent magnetic drum ; a width of a portion, corresponding to the ore feeding port , of the ore drawing slot is less than or equal to widths of other portions of the ore drawing slot . a coverage angle of the magnetic system ranges from 200 degrees to 280 degrees, the magnetic system is of a multi-magnetic pole structure, an area of the magnetic system close to the ore entering side of the tank is a magnetic system concentration area , and the magnetic system concentration area is located above an ore pulp level in the tank ; a plurality of rinsing water pipes are provided in an upstream position, corresponding to the magnetic system concentration area , in the tank , the plurality of rinsing water pipes are arranged at an outer side of the permanent magnetic drum and are located above the ore pulp level in the tank , a plurality of spray heads facing to the permanent magnetic drum are provided with intervals on each of the rinsing water pipes , and the spray heads on adjacent rinsing water pipes are staggered; and a plurality of strip-type magnetic sheets are provided with intervals on an inner wall of the permanent magnetic drum , and an extending direction of each of the magnetic sheets is consistent with an axial direction of the permanent magnetic drum ,
Method for attaching a branch pipe made of plastic to a pre-insulated pipeline containing a medium pipe made of plastic, an insulation layer and a casing pipe , wherein the branch pipe is designed with a conical shape at the end to be welded to the pipeline , including the following steps: • exposing a specific region of the medium pipe by cutting out and removing a cylindrical region of the casing pipe and the insulation layer of the pipeline , wherein the central axis of the cylindrical region to be cut out runs perpendicular to the pipeline axis of the pre-insulated pipeline , • drilling through the wall of the medium pipe in the exposed region, • heating the resulting bore circumference in the medium pipe by means of a heating tool , • heating the branch pipe by means of a heating tool , • pressing the heated branch pipe into the heated bore , wherein the heating of the bore circumference and the heating of the branch pipe occur simultaneously. • exposing a specific region of the medium pipe by cutting out and removing a cylindrical region of the casing pipe and the insulation layer of the pipeline , wherein the central axis of the cylindrical region to be cut out runs perpendicular to the pipeline axis of the pre-insulated pipeline , • drilling through the wall of the medium pipe in the exposed region, • heating the resulting bore circumference in the medium pipe by means of a heating tool , • heating the branch pipe by means of a heating tool , • pressing the heated branch pipe into the heated bore ,
Motor vehicle door latch, comprising a locking mechanism , and comprising a drive (5 to 9) for the locking mechanism , in particular for electrical opening/closing, the drive (5 to 9) being provided with at least one drive element which acts directly or indirectly on the locking mechanism , and comprising a mechanical operating element which is provided for emergency operation of the drive element , the drive element and the operating element each being provided with a toothing , characterized in that the toothing of the operating element is provided with a recess so that the two toothings do not engage with one another during normal operation and only mesh with one another for emergency operation.
Multilayer polyolefin film comprising a layer sequence of a) a sealable layer (a) having a layer thickness of 5-30 μm based on a polyethylene component having a density in the range from 0.910 to 0.940 g/cm 3 and a melting point in the range from 110°C to 130°C, b) a layer (b) having a layer thickness of 20-90 μm based on a polymer mixture of 51-85 wt% of at least one polyethylene having a density of 0.910 to 0.940 g/cm 3 and 15-49 wt%, based in each case on the total weight of the polymer mixture, of at least one propylene homopolymer or copolymer, c) a sealable layer (c) having a layer thickness of 5-30 μm based on a polyethylene component having a density in the range from 0.910 to 0.940 g/cm 3 and a melting point in the range from 110°C to 130°C, where the melting point of the layer (a) and/or of the layer (c) is at least 5°C lower than the melting point of the layer (b), where the tear propagation resistance of the polyolefin film in machine direction [MD] is ≤ 5 N and the tear propagation resistance crosswise to the machine direction [CD] is at least four times higher than in [MD], measured in each case according to DIN 53356, and the tensile strength is of approximately equal magnitude in machine direction [MD] as crosswise to the machine direction [CD] and is ≥ 15 N, measured according to DIN ISO 527-3. a) a sealable layer (a) having a layer thickness of 5-30 μm based on a polyethylene component having a density in the range from 0.910 to 0.940 g/cm 3 and a melting point in the range from 110°C to 130°C, b) a layer (b) having a layer thickness of 20-90 μm based on a polymer mixture of 51-85 wt% of at least one polyethylene having a density of 0.910 to 0.940 g/cm 3 and 15-49 wt%, based in each case on the total weight of the polymer mixture, of at least one propylene homopolymer or copolymer, c) a sealable layer (c) having a layer thickness of 5-30 μm based on a polyethylene component having a density in the range from 0.910 to 0.940 g/cm 3 and a melting point in the range from 110°C to 130°C,
A method for wirelessly providing a number of data packets (P1-P6) to a plurality of receivers (UE1-UE3) in a cell of a transmission node (20A; 20B) of a cellular telecommunications system, the method comprising: storing (S40)a number of network coded data packets (C1-Cn) at the transmission node; cyclically transmitting (S41) the stored network coded data packets from the transmission node to the plurality of receivers; wherein a number of transmitted network coded data packets in a cycle is at least equal to the number of data packets to be provided to each receiver of the plurality of receivers and wherein each network coded data packet is a linear combination of two or more data packets to be provided to each receiver. storing (S40)a number of network coded data packets (C1-Cn) at the transmission node; cyclically transmitting (S41) the stored network coded data packets from the transmission node to the plurality of receivers; wherein a number of transmitted network coded data packets in a cycle is at least equal to the number of data packets to be provided to each receiver of the plurality of receivers and wherein each network coded data packet is a linear combination of two or more data packets to be provided to each receiver.
A process for producing a multilayer laminate which comprises at least one substrate element and at least one polymeric layer element, wherein the polymeric layer element comprises a polymer composition comprising: - (a) a polymer; and wherein the process comprises the steps of: (i) assembling step to arrange the at least one substrate element and the at least one polymeric layer element in form of a multilayer assembly; (ii) heating step to heat up the multilayer assembly optionally in a chamber at evacuating conditions; (iii) pressure build up step, where the pressure on the multilayer assembly is gradually increased in a single or multiple steps; (iv) pressure holding step, where the pressure is kept on the multilayer assembly at the heated conditions attained at the end of step (ii); and (v) recovering step to cool and remove the obtained multilayer laminate for later use; characterised in that the pressure during pressure holding step (iv) is kept in the range from 50 to 450 mbar - (a) a polymer; and wherein the process comprises the steps of: (i) assembling step to arrange the at least one substrate element and the at least one polymeric layer element in form of a multilayer assembly; (ii) heating step to heat up the multilayer assembly optionally in a chamber at evacuating conditions; (iii) pressure build up step, where the pressure on the multilayer assembly is gradually increased in a single or multiple steps; (iv) pressure holding step, where the pressure is kept on the multilayer assembly at the heated conditions attained at the end of step (ii); and (v) recovering step to cool and remove the obtained multilayer laminate for later use; characterised in that
A multi-item sample analyzer , comprising: a sample measuring apparatus for measuring a sample collected from a patient, the sample measuring apparatus being configured to perform an initial measurement on the sample and, when a predetermined condition is met, a re-measurement on the sample, wherein the re-measurement is performed for a measurement item different from a measurement item performed for the initial measurement; a display section ; an input device ; and a controller programmed to perform, when the sample measuring apparatus performs the re-measurement on the sample, processes of: causing the display section to display a first result screen (D3) which shows a result of the initial measurement on the sample, the first result screen including an object (X3; X4) associated with a result of re-measurement on the sample; receiving a predefined operation by use of the object (X3; X4) through the input device while displaying the first result screen; and causing the display section to display, in a response to the predefined operation, a second result screen (D3) which shows the result of the re-measurement on the sample. a sample measuring apparatus for measuring a sample collected from a patient, the sample measuring apparatus being configured to perform an initial measurement on the sample and, when a predetermined condition is met, a re-measurement on the sample, wherein the re-measurement is performed for a measurement item different from a measurement item performed for the initial measurement; a display section ; an input device ; and a controller programmed to perform, when the sample measuring apparatus performs the re-measurement on the sample, processes of: causing the display section to display a first result screen (D3) which shows a result of the initial measurement on the sample, the first result screen including an object (X3; X4) associated with a result of re-measurement on the sample; receiving a predefined operation by use of the object (X3; X4) through the input device while displaying the first result screen; and causing the display section to display, in a response to the predefined operation, a second result screen (D3) which shows the result of the re-measurement on the sample. causing the display section to display a first result screen (D3) which shows a result of the initial measurement on the sample, the first result screen including an object (X3; X4) associated with a result of re-measurement on the sample; receiving a predefined operation by use of the object (X3; X4) through the input device while displaying the first result screen; and causing the display section to display, in a response to the predefined operation, a second result screen (D3) which shows the result of the re-measurement on the sample.
Disinfecting composition comprising the following biocides: a) Tartaric acid in concentrations from 1 mM to 70 mM; b) Lactic acid in concentrations from 1 mM to 70 mM, c) 1) lavender oil or lavender oil extract and 2) peppermint oil or peppermint oil extract in concentrations from 0.01 wt% to 1 wt%, d) copper-PCA in concentrations from 1 mM to 10 mM. a) Tartaric acid in concentrations from 1 mM to 70 mM; b) Lactic acid in concentrations from 1 mM to 70 mM, c) 1) lavender oil or lavender oil extract and 2) peppermint oil or peppermint oil extract in concentrations from 0.01 wt% to 1 wt%, 1) lavender oil or lavender oil extract and 2) peppermint oil or peppermint oil extract in concentrations from 0.01 wt% to 1 wt%, d) copper-PCA in concentrations from 1 mM to 10 mM.
A process for producing a molded article (M), comprising the steps of (i) providing a thin-walled, gas-permeable shell; (ii) filling the shell with a foamed pelletized material made of a polymer (P1); (iii) welding the foamed pelletized material to obtain the molded article (M). (i) providing a thin-walled, gas-permeable shell; (ii) filling the shell with a foamed pelletized material made of a polymer (P1); (iii) welding the foamed pelletized material to obtain the molded article (M).
Method for feeding backing ribbon for adhesive labels for labeling products to be labeled, characterized in that it comprises the following step: providing a splicing device and at least two supporting elements for said backing ribbon ; performing on command the splice between a first splicing region , formed on a first backing ribbon being unwound from a first supporting element , and a second splicing region , formed on a second backing ribbon wound on a second supporting element , said first backing ribbon supporting a plurality of adhesive labels which are arranged, mutually spaced, on the face directed toward said second splicing region , said first backing ribbon having, when it is associated with the respective supporting element , at least one portion that is free from self-adhesive labels and forms said first splicing region , said at least one portion being located substantially at the end of said first backing ribbon that is associated with said first supporting element . providing a splicing device and at least two supporting elements for said backing ribbon ; performing on command the splice between a first splicing region , formed on a first backing ribbon being unwound from a first supporting element , and a second splicing region , formed on a second backing ribbon wound on a second supporting element , said first backing ribbon supporting a plurality of adhesive labels which are arranged, mutually spaced, on the face directed toward said second splicing region , said first backing ribbon having, when it is associated with the respective supporting element , at least one portion that is free from self-adhesive labels and forms said first splicing region , said at least one portion being located substantially at the end of said first backing ribbon that is associated with said first supporting element .
Swivel axle for a lowerable vehicle trailer which has a chassis with longitudinal members , wherein the swivel axle has an axle body with axle blocks for fastening to the chassis , wherein the axle blocks are provided and designed for a bolt connection , in particular screw connection, to the longitudinal members , characterized in that the swivel axle has an understructure which reaches below the axle body and the axle block and which is provided and designed for fastening to the longitudinal member .
A method for regulated air conditioning in a ventilation system, in which a predetermined target air state, which is characterized at least by air temperature and air humidity, is set for air with an initial air state, in that the air with the initial air state is conditioned with the aid of an air cooler , for which, during air conditioning, both a coolant mass flow and a coolant inlet temperature of a coolant supplied to the air cooler are regulated: - the coolant being supplied to the air cooler by means of a temperature control device , using which the coolant inlet temperature is set, and a mass flow adjustment device , using which the coolant mass flow is set, and - a regulating device, which couples to the mass flow adjustment device and the temperature control device , regulating the mass flow adjustment device and the temperature control device for setting the predetermined target air state characterized in that - a temperature of the coolant is regulated in a supply manifold, by means of which the coolant is supplied to the temperature control device and the mass flow adjustment device , wherein the regulation of the temperature of the coolant takes place in the supply manifold as a function of - a position of the temperature control device , - a temperature of the temperature control device , - a manipulated variable of the regulating device for the regulation of the temperature control device or - a temperature in a supplier circuit comprising the temperature control device and the mass flow adjustment device . - the coolant being supplied to the air cooler by means of a temperature control device , using which the coolant inlet temperature is set, and a mass flow adjustment device , using which the coolant mass flow is set, and - a regulating device, which couples to the mass flow adjustment device and the temperature control device , regulating the mass flow adjustment device and the temperature control device for setting the predetermined target air state characterized in that - a temperature of the coolant is regulated in a supply manifold, by means of which the coolant is supplied to the temperature control device and the mass flow adjustment device , wherein the regulation of the temperature of the coolant takes place in the supply manifold as a function of - a position of the temperature control device , - a temperature of the temperature control device , - a manipulated variable of the regulating device for the regulation of the temperature control device or - a temperature in a supplier circuit comprising the temperature control device and the mass flow adjustment device . - a position of the temperature control device , - a temperature of the temperature control device , - a manipulated variable of the regulating device for the regulation of the temperature control device or - a temperature in a supplier circuit comprising the temperature control device and the mass flow adjustment device .
A turbine blade having hollowness, comprising a pressure side wall in which a blowout port is provided at a rear edge portion (IB); a suction side wall comprising an inner wall surface , wherein a portion of said inner wall surface is exposed from the blowout port forming an exposed region (R1), the turbine blade being configured to blow cooling air in a flow direction (X) along the inner wall surface at the exposed region (R1); and a plurality of first recesses provided in the inner wall surface of the suction side wall , wherein the contour of said first recesses viewed from the normal direction to the inner wall surface of the suction side wall is set to a shape that is symmetrically centered on a reference axis (L) that is configured to intersect the flow direction of cooling air (X) at a 45 degree angle, and that broadens along the reference axis (L), the shape of said first recesses in a perpendicular cross-section of the inner wall surface of the suction side wall passing along the reference axis (L) consists of a linear-shaped region (5R1) heading from a blade leading edge side end to a deepest portion of said first recesses arranged nearer the blade trailing edge , and a circular arc-shaped region (5R2) that connects the deepest portion and a blade trailing edge side end , wherein the linear-shaped region (5R1) is tangent to the circular arc-shaped region (5R2), a first recess of said plurality of recesses is provided at the exposed region (R1) and a further first recess of said plurality of first recesses is provided in a portion (R2) of the inner wall surface of the suction side wall that faces the pressure side wall and is continuous with the exposed region (R1), a second recess having the same shape as the first recess is further provided in a region (R3) that is a portion (R3) of an inner wall surface of the pressure side wall , and that faces the portion (R2) of the inner wall surface of the suction side wall in which the further first recess is provided, and the deepest portion has a depth equal to 0.3 times of the diameter (D) of the circular arc-shaped region (5R2).
A light emitting diode display device, comprising: a substrate ; a semiconductor disposed on the substrate ; a gate electrode disposed on the semiconductor ; an interlayer insulating layer disposed on the substrate and the gate electrode ; source and drain electrodes disposed on the interlayer insulating layer and connected to the semiconductor ; at least a first slit (1165-1167, 2165-2167, 3165-3168,..,10162-10167) provided in the interlayer insulating layer ; and at least a first wire disposed on the interlayer insulating layer and configured to overlap the first slit (1165-1167, 2165-2167, 3165-3168,..,10162-10167); characterized in that an upper layer for the semiconductor is mostly covered by the source electrode and the drain electrode or a first electrode connected to the drain electrode . a substrate ; a semiconductor disposed on the substrate ; a gate electrode disposed on the semiconductor ; an interlayer insulating layer disposed on the substrate and the gate electrode ; source and drain electrodes disposed on the interlayer insulating layer and connected to the semiconductor ; at least a first slit (1165-1167, 2165-2167, 3165-3168,..,10162-10167) provided in the interlayer insulating layer ; and at least a first wire disposed on the interlayer insulating layer and configured to overlap the first slit (1165-1167, 2165-2167, 3165-3168,..,10162-10167); characterized in that an upper layer for the semiconductor is mostly covered by the source electrode and the drain electrode or a first electrode connected to the drain electrode .
A dental dentinal tubule sealing material comprising a curable calcium phosphate composition for biological hard tissue repair, comprising tetracalcium phosphate particles (A), calcium hydrogen phosphate particles (B), calcium carbonate particles (C), and water (D), the curable calcium phosphate composition comprising 5 to 75 parts by weight of the tetracalcium phosphate particles (A), 10 to 70 parts by weight of the calcium hydrogen phosphate particles (B), and 2 to 50 parts by weight of the calcium carbonate particles (C) per 100 parts by weight of the total of the tetracalcium phosphate particles (A), the calcium hydrogen phosphate particles (B), and the calcium carbonate particles (C).