mhurhangee/patent-ind-claim-en huggingface dataset:
Strength-training apparatus, suitable for fastening on a wall or ceiling, comprising the following components: - a load-bearing framework having an upper, horizontal load-bearing beam or an upper fastening means, referred to hereinbelow collectively as upper retaining element, - beneath the upper retaining element, at least one vertical load-bearing beam , which is mounted on the upper retaining element, characterized in that the strength-training apparatus also comprises: - an extension arrangement with at least one horizontal extension arm , which runs parallel to the wall , and at least one second extension arm , which has a first end region and also has a second, free end region for receiving training elements, wherein the at least second extension arm has its first end region mounted on the vertical load-bearing beam , - at least one slide bearing for displacing the at least second extension arm along the vertical load-bearing beam , wherein - the strength-training apparatus comprises at least two different training elements such as handles, a horizontal bar, one or two punch mitts, a speed ball, training straps, a swing or resistance bands, which can be mounted in a releasable manner, and are interchangeable, by way of connecting means at the second, free end region of the at least second extension arm . - a load-bearing framework having an upper, horizontal load-bearing beam or an upper fastening means, referred to hereinbelow collectively as upper retaining element, - beneath the upper retaining element, at least one vertical load-bearing beam , which is mounted on the upper retaining element, - an extension arrangement with at least one horizontal extension arm , which runs parallel to the wall , and at least one second extension arm , which has a first end region and also has a second, free end region for receiving training elements, wherein the at least second extension arm has its first end region mounted on the vertical load-bearing beam , - at least one slide bearing for displacing the at least second extension arm along the vertical load-bearing beam , - the strength-training apparatus comprises at least two different training elements such as handles, a horizontal bar, one or two punch mitts, a speed ball, training straps, a swing or resistance bands, which can be mounted in a releasable manner, and are interchangeable, by way of connecting means at the second, free end region of the at least second extension arm .
Centrifugal separator for separation of a suspension or mixture with a stack of filter discs comprising a feeding unit with an inlet and a stationary pipe , whereby the pipe extends from the top of the centrifugal separator through the stack of filter discs and the opening of the pipe is directed to the accelerator disc of the separator bowl of the centrifugal separator , characterized in that the feed pipe has spiral grooves running in longitudinal direction of the pipe to impact to the flow of suspension a radial and tangential component.
An electrochemical process for precipitating arsenic from a liquid formulation containing As(III) or a mixture of As(III) and As(V), in the form of crystalline scorodite FeAsO 4 .2H 2 O particles, wherein the process comprises the steps of (i) supplying the formulation to a catholyte in a cathode compartment of an electrochemical cell equipped with a cathode comprising a gas diffusion electrode with a porous electrochemically active material, and adjusting the pH of the thus obtained catholyte to a value of between 0 and 2.0, which cathode compartment further contains a source of Fe ions in an amount which is such that the molar ratio in the catholyte of Fe ions to As ions is minimum 4.0, wherein the temperature of the catholyte is maintained between 25°C and 70°C, (ii) supplying an O 2 containing oxidant gas to the gas diffusion electrode, (iii) applying a potential to the cathode which is such as to cause reduction of the O 2 contained in the oxidant gas to one or more of the corresponding peroxide, OH - , ionic and/or radical reactive oxygen containing species, (iv) and recovering precipitated, crystalline scorodite. (i) supplying the formulation to a catholyte in a cathode compartment of an electrochemical cell equipped with a cathode comprising a gas diffusion electrode with a porous electrochemically active material, and adjusting the pH of the thus obtained catholyte to a value of between 0 and 2.0, which cathode compartment further contains a source of Fe ions in an amount which is such that the molar ratio in the catholyte of Fe ions to As ions is minimum 4.0, wherein the temperature of the catholyte is maintained between 25°C and 70°C, (ii) supplying an O 2 containing oxidant gas to the gas diffusion electrode, (iii) applying a potential to the cathode which is such as to cause reduction of the O 2 contained in the oxidant gas to one or more of the corresponding peroxide, OH - , ionic and/or radical reactive oxygen containing species, (iv) and recovering precipitated, crystalline scorodite.
An electronic vapour provision system having a longitudinal axis (LA) and comprising: a control unit and at least one cartridge configured to engage with and disengage from the control unit substantially along said longitudinal axis, the at least one cartridge including a reservoir of liquid to be vaporised; and an induction heating assembly comprising at least one drive coil and a plurality of heater elements , wherein the heaters elements are located in the at least one cartridge for vaporising said liquid, the at least one cartridge being configured to feed liquid from the reservoir onto the heater elements for vaporisation into an airflow caused by user inhalation, the at least one cartridge being located, when engaged with the control unit, such that the heater elements are within the at least one drive coil, and wherein the electronic vapour provision system is configured to support selective energisation of different heater elements from the plurality of heater elements. a control unit and at least one cartridge configured to engage with and disengage from the control unit substantially along said longitudinal axis, the at least one cartridge including a reservoir of liquid to be vaporised; and an induction heating assembly comprising at least one drive coil and a plurality of heater elements , wherein the heaters elements are located in the at least one cartridge for vaporising said liquid, the at least one cartridge being configured to feed liquid from the reservoir onto the heater elements for vaporisation into an airflow caused by user inhalation, the at least one cartridge being located, when engaged with the control unit, such that the heater elements are within the at least one drive coil, and wherein the electronic vapour provision system is configured to support selective energisation of different heater elements from the plurality of heater elements.
A method for detecting a fusion gene composed of a retinitis pigmentosa 2 (X-linked recessive) (RP2) gene and a Rho GTPase activating protein 6 (ARHGAP6) gene, the method comprising a step of detecting whether a polynucleotide that encodes a polypeptide described by either or shown below exists in a sample obtained from a subject: a polypeptide that comprises an amino acid sequence having no less than 90% identity with an amino acid sequence represented by SEQ ID NO: 2; a polypeptide that comprises an amino acid sequence represented by SEQ ID NO: 2, or a polypeptide that comprises an amino acid sequence represented by SEQ ID NO: 2, in which 1 to 10 amino acids are deleted, substituted, inserted and/or added. a polypeptide that comprises an amino acid sequence having no less than 90% identity with an amino acid sequence represented by SEQ ID NO: 2; a polypeptide that comprises an amino acid sequence represented by SEQ ID NO: 2, or a polypeptide that comprises an amino acid sequence represented by SEQ ID NO: 2, in which 1 to 10 amino acids are deleted, substituted, inserted and/or added.
Module consisting of a first metallic component and a second metallic component which are joined with a welding seam , generated by means of a welding procedure, as a joining connection, wherein - the welding seam has a welding seam main portion (4.1) extending along a joining gap formed between the metallic components , characterised in that - the welding seam has a welding seam initial section (4.2) led out of the direction of the joining gap into the first or second component , wherein in the region of the welding scene initial section (4.2) the first or second component has an indentation (2.4) locally sunken with respect to the upper edges (1.2, 2.2), forming the joining gap , of the two components , and/or - the welding seam has a welding seam end section (4.3) led out of the direction of the joining gap into the first or second component , wherein the first or second component in the region of the welding seam end section (4.3) has an indentation (2.6) locally sunken with respect to the upper edges (1.2, 2.2), forming the joining gap , of the two components , wherein the local indentations (2.4, 2.6) are situated externally to the joining gap in one of the two components . - the welding seam has a welding seam main portion (4.1) extending along a joining gap formed between the metallic components , characterised in that - the welding seam has a welding seam initial section (4.2) led out of the direction of the joining gap into the first or second component , wherein in the region of the welding scene initial section (4.2) the first or second component has an indentation (2.4) locally sunken with respect to the upper edges (1.2, 2.2), forming the joining gap , of the two components , and/or - the welding seam has a welding seam end section (4.3) led out of the direction of the joining gap into the first or second component , wherein the first or second component in the region of the welding seam end section (4.3) has an indentation (2.6) locally sunken with respect to the upper edges (1.2, 2.2), forming the joining gap , of the two components , wherein the local indentations (2.4, 2.6) are situated externally to the joining gap in one of the two components .
An electronic cigarette cartridge using a tobacco plant or a non-tobacco plant, the electronic cigarette cartridge comprising a support member , wherein the support member is disposed adjacent to an aerosol-forming base material which is located at one end portion of the electronic cigarette cartridge, or sandwiching another member between the aerosol-forming base material and the support member, the other member supporting the aerosol-forming base material, characterised by the support member comprising: a central portion which is located along a central axis in a longitudinal direction of the electronic cigarette cartridge ; and a plurality of side portions which extends outward from the central portion , and makes contact with a packaging member located at a periphery of the electronic cigarette cartridge . a central portion which is located along a central axis in a longitudinal direction of the electronic cigarette cartridge ; and a plurality of side portions which extends outward from the central portion , and makes contact with a packaging member located at a periphery of the electronic cigarette cartridge .
Hydraulic machine comprising a housing and a spool arranged in the housing rotatably about an axis of rotation , wherein the spool comprises a first circumferential groove , a second circumferential groove , a set of first axial grooves connected to the first circumferential groove and a set of second axial grooves connected to the second circumferential groove , the axial grooves being arranged between the first circumferential groove and the second circumferential groove and the first axial grooves and the second axial grooves are alternately distributed in circumferential direction of the spool , characterized in that the first groove comprises a first bottom wall between two first transition areas at the axial ends of the bottom wall , the first bottom wall having a varying distance to the axis of rotation .
Fuse , namely SMD fuse and/or miniature fuse, with an insulating body having a cavity , a fusible conductor arranged in the insulating body and outer contact caps placed on the insulating body on the front side and electrically connected to the fusible conductor , the fusible conductor is fixed for positionally stable arrangement in the insulating body by means of at least one fixing means assigned to a contact cap , in that the fixing means is placed on the front side of the insulating body , and in that the fixing means is put over at least in regions from the assigned contact cap , wherein the fixing means has a basic side for bearing at least in regions on the front side of the insulating body , wherein the basic side of the fixing means has an opening , wherein at least one protrusion projects into the opening from the basic side of the fixing means for fixing and/or supporting the fusible conductor , characterized in that the protrusion has at least two bent-over legs , arranged laterally on the protrusion , and the fusible conductor is fixed on the protrusion by means of the legs , namely being enclosed between the protrusion and the legs , the bent-over legs lying on top of one another and/or being arranged one above the other. the fusible conductor is fixed for positionally stable arrangement in the insulating body by means of at least one fixing means assigned to a contact cap , in that the fixing means is placed on the front side of the insulating body , and in that the fixing means is put over at least in regions from the assigned contact cap , wherein the fixing means has a basic side for bearing at least in regions on the front side of the insulating body , wherein the basic side of the fixing means has an opening , wherein at least one protrusion projects into the opening from the basic side of the fixing means for fixing and/or supporting the fusible conductor , characterized in that the protrusion has at least two bent-over legs , arranged laterally on the protrusion , and the fusible conductor is fixed on the protrusion by means of the legs , namely being enclosed between the protrusion and the legs , the bent-over legs lying on top of one another and/or being arranged one above the other.
A method of distinguishing engine knock from piston slap in a reciprocating device , comprising: obtaining a fundamental frequency of a cylinder , the cylinder comprising a thrust face and an anti-thrust face; and receiving a first signal from a first knock sensor disposed on a cylinder ; identifying the presence of piston slap, comprising evaluating whether a plurality of amplitudes of the first signal at the fundamental frequency and one or more harmonic frequencies of the fundamental frequency exceed a piston slap threshold value; and further comprising identifying the presence of engine knock comprising evaluating whether the plurality of amplitudes do not decrease as the one or more harmonic frequencies increase. obtaining a fundamental frequency of a cylinder , the cylinder comprising a thrust face and an anti-thrust face; and receiving a first signal from a first knock sensor disposed on a cylinder ; identifying the presence of piston slap, comprising evaluating whether a plurality of amplitudes of the first signal at the fundamental frequency and one or more harmonic frequencies of the fundamental frequency exceed a piston slap threshold value; and further comprising identifying the presence of engine knock comprising evaluating whether the plurality of amplitudes do not decrease as the one or more harmonic frequencies increase.
1. A driving mechanism (D1; D2) for a vehicle provided with at least two wheels (L), comprising - a drive source (E) which is connected to the wheels via a drive line, - a clutch (C0) present in the drive line between the drive source and the wheels - a first hybrid module (M1) comprising: ∘ - an input/output (I/O1) which is connected to the drive source directly or via a first node that is present between the clutch (C0) and the drive source (E), ∘ - a flywheel (F1) which is connected to the input/output, and ∘ - a flywheel clutch (C1) which is present between the flywheel and the input/output, characterized in that the driving mechanism further includes: - a second hybrid module (M2) which is provided with: ∘ - a further input/output (I/O2) which is connected to the drive line via a second node that is present between the clutch (C0) and the wheels (L), ∘ - a motor/generator (M/G) which is connected to the further input/output, ∘ - energizing means (A) which are connected to the motor/generator; ∘ - a further clutch (C2) which is present between the motor/generator (M/G) and the further input/output (I/O2). - a drive source (E) which is connected to the wheels via a drive line, - a clutch (C0) present in the drive line between the drive source and the wheels - a first hybrid module (M1) comprising: ∘ - an input/output (I/O1) which is connected to the drive source directly or via a first node that is present between the clutch (C0) and the drive source (E), ∘ - a flywheel (F1) which is connected to the input/output, and ∘ - a flywheel clutch (C1) which is present between the flywheel and the input/output, ∘ - an input/output (I/O1) which is connected to the drive source directly or via a first node that is present between the clutch (C0) and the drive source (E), ∘ - a flywheel (F1) which is connected to the input/output, and ∘ - a flywheel clutch (C1) which is present between the flywheel and the input/output, - a second hybrid module (M2) which is provided with: ∘ - a further input/output (I/O2) which is connected to the drive line via a second node that is present between the clutch (C0) and the wheels (L), ∘ - a motor/generator (M/G) which is connected to the further input/output, ∘ - energizing means (A) which are connected to the motor/generator; ∘ - a further clutch (C2) which is present between the motor/generator (M/G) and the further input/output (I/O2). ∘ - a further input/output (I/O2) which is connected to the drive line via a second node that is present between the clutch (C0) and the wheels (L), ∘ - a motor/generator (M/G) which is connected to the further input/output, ∘ - energizing means (A) which are connected to the motor/generator; ∘ - a further clutch (C2) which is present between the motor/generator (M/G) and the further input/output (I/O2).
A hot melt adhesive composition comprising: (a) a polymer blend containing at least one semicrystalline LMW SSC-PP polymer and at least one essentially amorphous HMW SSC-PP copolymer; both of which are either homopolypropylene or copolymers of propylene with an α-olefin comonomer prepared by using SSC catalysts; the weight ratio of the LMW SSC-PP polymer to the HMW SSC-PP polymer in the blends ranges from 9:1 to 1:9 and the total amount of the polymer blend in the composition of the present invention is from 20% to 80% by weight; the LMW SSC-PP having a weight average molecular weight from 10,000 g/mole to 100,000 g/mole, a crystallinity of 18% to 50%, and a Brookfield viscosity at 190 °C ranging from 800 mPa.s to 100,000 mPa.s; and the HMW SSC-PP polymer a weight average molecular weight greater than 100,000 g/mole, and a crystallinity of 0% to 18%, wherein the molecular weight of the HMW PP polymer is at least double, preferably at least three times, and even more preferably at least five times the molecular weight of the LMW SSC-PP; (b) a compatible tackifier in the amount of 15% by weight to 75% by weight; (c) 1% to 35% by weight of a plasticizer; (d) 0.1% to 3% by weight of a stabilizer or antioxidant; and (e) optionally 0% to 20% by weight of a wax. (a) a polymer blend containing at least one semicrystalline LMW SSC-PP polymer and at least one essentially amorphous HMW SSC-PP copolymer; both of which are either homopolypropylene or copolymers of propylene with an α-olefin comonomer prepared by using SSC catalysts; the weight ratio of the LMW SSC-PP polymer to the HMW SSC-PP polymer in the blends ranges from 9:1 to 1:9 and the total amount of the polymer blend in the composition of the present invention is from 20% to 80% by weight; the LMW SSC-PP having a weight average molecular weight from 10,000 g/mole to 100,000 g/mole, a crystallinity of 18% to 50%, and a Brookfield viscosity at 190 °C ranging from 800 mPa.s to 100,000 mPa.s; and the HMW SSC-PP polymer a weight average molecular weight greater than 100,000 g/mole, and a crystallinity of 0% to 18%, wherein the molecular weight of the HMW PP polymer is at least double, preferably at least three times, and even more preferably at least five times the molecular weight of the LMW SSC-PP; (b) a compatible tackifier in the amount of 15% by weight to 75% by weight; (c) 1% to 35% by weight of a plasticizer; (d) 0.1% to 3% by weight of a stabilizer or antioxidant; and (e) optionally 0% to 20% by weight of a wax.
A method for treatment of the CdTe layer of semifinished thin-film solar cell products in a superstrate configuration, having a CdTe layer as the topmost layer, wherein the CdTe layer has a Te-rich surface layer which is largely freed of the tellurium oxides present there by reducing these tellurium oxides to tellurium by using a reducing agent, wherein the reducing step is carried out by immersing the semifinished thin-film solar cell products in a wet bath, wherein the reducing agent is brought in contact with the surface of the Te-rich layer under atmospheric conditions and at a temperature in the range of 15°C to 30°C, characterized in that a neutral or weakly acidic aqueous Na 2 S 2 O 4 solution or an aqueous acidic solution of stannous chloride or an aqueous sodium borohydride solution is used as the reducing agent.
A smoking substitute device comprising: a battery configured to energise the smoking substitute device over a plurality of operating cycles; a controller configured to: identify a puffing pattern characteristic during an operating cycle; detect the amount of energy stored in the battery ; and determine the number of remaining operating cycles available to a user based on the puffing pattern characteristic and the amount of stored energy, wherein each operating cycle is associated with the consumption of an aerosol-forming article ; characterised in that the controller is configured to control the length of time of each operating cycle, and the controller is further configured to compare the determined number of remaining operating cycles to a predetermined number of operating cycles and, in response, to alter the length of time of subsequent operating cycles. a battery configured to energise the smoking substitute device over a plurality of operating cycles; a controller configured to: identify a puffing pattern characteristic during an operating cycle; detect the amount of energy stored in the battery ; and determine the number of remaining operating cycles available to a user based on the puffing pattern characteristic and the amount of stored energy, wherein each operating cycle is associated with the consumption of an aerosol-forming article ; characterised in that the controller is configured to control the length of time of each operating cycle, and the controller is further configured to compare the determined number of remaining operating cycles to a predetermined number of operating cycles and, in response, to alter the length of time of subsequent operating cycles. identify a puffing pattern characteristic during an operating cycle; detect the amount of energy stored in the battery ; and determine the number of remaining operating cycles available to a user based on the puffing pattern characteristic and the amount of stored energy, wherein each operating cycle is associated with the consumption of an aerosol-forming article ; characterised in that the controller is configured to control the length of time of each operating cycle, and the controller is further configured to compare the determined number of remaining operating cycles to a predetermined number of operating cycles and, in response, to alter the length of time of subsequent operating cycles.