mhurhangee/patent-ind-claim-en huggingface dataset:
Plastic container comprising a body extending along a longitudinal axis between an opening and a bottom , the bottom having: - a seating surface forming a standing plane for the container ; - a concave arch , exhibiting symmetry of revolution about the longitudinal axis (X), and extending from near the seating surface as far as an amorphous central zone ; - stiffening bosses protruding from the concave arch and extending radially on the inside of the arch , characterized in that the arch comprises two separate zones, namely a first zone and a second zone , which are separated by a level and in that the stiffening bosses are angularly spaced apart from one another, alternating first bosses and second bosses distributed according to: - a first annular band in which the first bosses extend from a first end near the seating surface as far as a second end , the first bosses forming a second annular band between their second end and the amorphous central zone , wherein the second end of the first bosses opens into the second zone at a distance from the level of between 25% and 65% of the total developed length of this second zone ; - a third annular band in which the second bosses extend from a first end near the amorphous central zone as far as a second end , the second bosses forming a fourth annular band between their second end and the seating surface , wherein the second end of the second bosses opens into the first zone , at a distance from the level of between 25% and 65% of the total developed length of this first zone . - a seating surface forming a standing plane for the container ; - a concave arch , exhibiting symmetry of revolution about the longitudinal axis (X), and extending from near the seating surface as far as an amorphous central zone ; - stiffening bosses protruding from the concave arch and extending radially on the inside of the arch , - a first annular band in which the first bosses extend from a first end near the seating surface as far as a second end , the first bosses forming a second annular band between their second end and the amorphous central zone , wherein the second end of the first bosses opens into the second zone at a distance from the level of between 25% and 65% of the total developed length of this second zone ; - a third annular band in which the second bosses extend from a first end near the amorphous central zone as far as a second end , the second bosses forming a fourth annular band between their second end and the seating surface , wherein the second end of the second bosses opens into the first zone , at a distance from the level of between 25% and 65% of the total developed length of this first zone .
A circuit for detecting junction temperature (T) of a MOSFET , comprising: a MOSFET , a sense resistor (Rs) connected in series to drain or source of the MOSFET , an amplifier (14, U2A) for amplifying a voltage (Vr) across the sense resistor (Rs) by a predetermined value (K), and a comparator (16, U1A) for comparing the amplified voltage (KVr) with a drain voltage (Vds) of the MOSFET, wherein a Drain-to-Source On Resistance (Rdson) of the MOSFET represents junction temperature (T) based on a linear relation between the Rdson and junction temperature (T) of the MOSFET , characterized in that the drain voltage (Vds) is described as Vds = I * (Rdson(T) + Rs ), where Rdson(T) is the Drain-Source on Resistance of the MOSFET as a function of junction temperature (T) of the MOSFET , Rs is a resistance of the sense resistor (Rs), and I is the current flow through the MOSFET and the sense resistor (Rs). a MOSFET , a sense resistor (Rs) connected in series to drain or source of the MOSFET , an amplifier (14, U2A) for amplifying a voltage (Vr) across the sense resistor (Rs) by a predetermined value (K), and a comparator (16, U1A) for comparing the amplified voltage (KVr) with a drain voltage (Vds) of the MOSFET, wherein a Drain-to-Source On Resistance (Rdson) of the MOSFET represents junction temperature (T) based on a linear relation between the Rdson and junction temperature (T) of the MOSFET , characterized in that the drain voltage (Vds) is described as Vds = I * (Rdson(T) + Rs ), where Rdson(T) is the Drain-Source on Resistance of the MOSFET as a function of junction temperature (T) of the MOSFET , Rs is a resistance of the sense resistor (Rs), and I is the current flow through the MOSFET and the sense resistor (Rs).
An antibody having specificity for B and T lymphocyte attenuator (BTLA) characterized in that i. it does not block the binding of HVEM to BTLA, and ii. it increases the proliferation of Vγ9VδT cells and wherein said antibody is either i. an antibody having a heavy chain comprising the H-CDR1 as defined by the sequence ranging from the amino acid residue at position 31 to the amino acid residue at position 35 in SEQ ID NO:1; the H-CDR2 as defined by the sequence ranging from the amino acid residue at position 50 to the amino acid residue at position 65 in SEQ ID NO:1; the H-CDR3 as defined by the sequence ranging from the amino acid residue at position 98 to the amino acid residue at position 109 in SEQ ID NO:1; the L-CDR1 as defined by the sequence ranging from the amino acid residue at position 24 to the amino acid residue at position 40 in SEQ ID NO:2; the L-CDR2 as defined by the sequence ranging from the amino acid residue at position 56 to the amino acid residue at position 62 in SEQ ID NO:2; and, the L-CDR3 as defined by the sequence ranging from the amino acid residue at position 95 to the amino acid residue at position 102 in SEQ ID NO:2; or, ii. a functional variant of a parent antibody as defined in (i) having CDR variant sequences which differ from corresponding CDR sequences of said parent antibody from only 1 substitution by conservative amino acid residue replacement. i. it does not block the binding of HVEM to BTLA, and ii. it increases the proliferation of Vγ9VδT cells i. an antibody having a heavy chain comprising the H-CDR1 as defined by the sequence ranging from the amino acid residue at position 31 to the amino acid residue at position 35 in SEQ ID NO:1; the H-CDR2 as defined by the sequence ranging from the amino acid residue at position 50 to the amino acid residue at position 65 in SEQ ID NO:1; the H-CDR3 as defined by the sequence ranging from the amino acid residue at position 98 to the amino acid residue at position 109 in SEQ ID NO:1; the L-CDR1 as defined by the sequence ranging from the amino acid residue at position 24 to the amino acid residue at position 40 in SEQ ID NO:2; the L-CDR2 as defined by the sequence ranging from the amino acid residue at position 56 to the amino acid residue at position 62 in SEQ ID NO:2; and, the L-CDR3 as defined by the sequence ranging from the amino acid residue at position 95 to the amino acid residue at position 102 in SEQ ID NO:2; or, ii. a functional variant of a parent antibody as defined in (i) having CDR variant sequences which differ from corresponding CDR sequences of said parent antibody from only 1 substitution by conservative amino acid residue replacement.
Toy valve assembly (1; 25) - having a plastic base body with a base body conduit path , - having a plastic closure body (7, 8; 26) with a closure body conduit path , - with a closure part , which is an integral component of the plastic closure body (7, 8; 26) and can be switched between -- a sealing position, in which the closure part seals the base body conduit path by contact with the plastic base body , and -- a release position, in which the closure part is released from the plastic base body and there is hereby a flow between the base body conduit path and the closure conduit path . - having a plastic base body with a base body conduit path , - having a plastic closure body (7, 8; 26) with a closure body conduit path , - with a closure part , which is an integral component of the plastic closure body (7, 8; 26) and can be switched between -- a sealing position, in which the closure part seals the base body conduit path by contact with the plastic base body , and -- a release position, in which the closure part is released from the plastic base body and there is hereby a flow between the base body conduit path and the closure conduit path . -- a sealing position, in which the closure part seals the base body conduit path by contact with the plastic base body , and -- a release position, in which the closure part is released from the plastic base body and there is hereby a flow between the base body conduit path and the closure conduit path .
A device for measuring a temperature of a liquid food product, the device comprising a housing having an inlet and an outlet for allowing passage of liquid food product through the housing , a temperature probe located within the housing for providing a signal representative of a temperature of liquid food product passing through the housing , a scraping sleeve that is concentrically arranged over the temperature probe and axially moveable along the temperature probe to scrape and remove deposits from the temperature probe that have been formed by accumulation of liquid food product on an outer surface of the temperature probe , an actuator to which an axial end of the scraping sleeve is attached, such that the actuator can move the scraping sleeve along the temperature probe , wherein the scraping sleeve has a longitudinal body and at least one radial slot formed in the longitudinal body to allow deposits that have been scraped from the temperature probe to be removed from the temperature probe through the at least one radial slot . a housing having an inlet and an outlet for allowing passage of liquid food product through the housing , a temperature probe located within the housing for providing a signal representative of a temperature of liquid food product passing through the housing , a scraping sleeve that is concentrically arranged over the temperature probe and axially moveable along the temperature probe to scrape and remove deposits from the temperature probe that have been formed by accumulation of liquid food product on an outer surface of the temperature probe , an actuator to which an axial end of the scraping sleeve is attached, such that the actuator can move the scraping sleeve along the temperature probe , wherein the scraping sleeve has a longitudinal body and at least one radial slot formed in the longitudinal body to allow deposits that have been scraped from the temperature probe to be removed from the temperature probe through the at least one radial slot .
Modular multilevel converter having a multiplicity of submodules (1_1, 1_2, 6_n) that each have at least two electronic switching elements and an electrical energy store , and having a control device for the submodules, wherein an optical output of the control device is connected to an input of a passive optical distributor by means of a first optical fibre , and a multiplicity of outputs of the passive optical distributor are connected to an optical input of a respective one of the submodules (1_1, 1_2, 6_n) by means of a respective second optical fibre , and - the control device has a multiplicity of optical inputs , and an optical output of each of the submodules (1_1, 1_2, 6_n) is connected to one of the optical inputs of the control device by means of a third optical fibre , characterized in that - each of the outputs of the submodules (1_1, 1_2, 6_n) is connected to a different one of the optical inputs of the control device . - the control device has a multiplicity of optical inputs , and an optical output of each of the submodules (1_1, 1_2, 6_n) is connected to one of the optical inputs of the control device by means of a third optical fibre , characterized in that - each of the outputs of the submodules (1_1, 1_2, 6_n) is connected to a different one of the optical inputs of the control device .
A wireless power transmitting device comprising: a power source ; a patch antenna (211-214); a transmission/reception processing circuit (221-224), wherein the transmission/reception processing circuit (221-224) comprises a circulator configured to connect the transmission/reception processing circuit (221-224) to an input terminal of the patch antenna (211-214) during a first period and to connect the transmission/reception processing circuit (221-224) to an output terminal of the patch antenna (211-214) during a second period; and a processor configured to: control the transmission/reception processing circuit (221-224) to output, through the patch antenna (211-214), a first signal provided from the power source during the first period, and control the transmission/reception processing circuit (221-224) to receive, through the patch antenna (211-214), a second signal based on a reflection of the first signal during the second period, in response to detecting of a target device based on the second signal, control the transmission/reception processing circuit (221-224) to transmit, through the patch antenna (211-214), power to the target device , wherein the first period does not overlap with the second period. a power source ; a patch antenna (211-214); a transmission/reception processing circuit (221-224), wherein the transmission/reception processing circuit (221-224) comprises a circulator configured to connect the transmission/reception processing circuit (221-224) to an input terminal of the patch antenna (211-214) during a first period and to connect the transmission/reception processing circuit (221-224) to an output terminal of the patch antenna (211-214) during a second period; and a processor configured to: control the transmission/reception processing circuit (221-224) to output, through the patch antenna (211-214), a first signal provided from the power source during the first period, and control the transmission/reception processing circuit (221-224) to receive, through the patch antenna (211-214), a second signal based on a reflection of the first signal during the second period, in response to detecting of a target device based on the second signal, control the transmission/reception processing circuit (221-224) to transmit, through the patch antenna (211-214), power to the target device , wherein the first period does not overlap with the second period. control the transmission/reception processing circuit (221-224) to output, through the patch antenna (211-214), a first signal provided from the power source during the first period, and control the transmission/reception processing circuit (221-224) to receive, through the patch antenna (211-214), a second signal based on a reflection of the first signal during the second period, in response to detecting of a target device based on the second signal, control the transmission/reception processing circuit (221-224) to transmit, through the patch antenna (211-214), power to the target device , wherein the first period does not overlap with the second period.
A composite electrode for use in a lithium-ion battery comprising a porous silicon with a specific capacity between 500 and 2200 mAh/g and a conductive polymer binder, wherein the conductive polymer binder is selected from the group consisting of a polymeric composition having repeating units of the formula: wherein n=1-10 million, wherein m+n=1-10 million, m/n ratio is 9/1 to 1/9 and wherein m+n = 1-10 million, m/n ratio is 9/1 to 1/9, and wherein the porous silicon is deposited onto a conductive carrier material and coated with a protective layer, and wherein the porous silicon has a volume ratio of silicon to void space of 1:1. wherein n=1-10 million, wherein m+n=1-10 million, m/n ratio is 9/1 to 1/9 and wherein m+n = 1-10 million, m/n ratio is 9/1 to 1/9, and wherein the porous silicon is deposited onto a conductive carrier material and coated with a protective layer, and wherein the porous silicon has a volume ratio of silicon to void space of 1:1.
Lens with a fixed focal length, consisting of five lens-element groups, wherein three (G1, G3, G5) are mounted in a stationary manner and two (G2, G4) are mounted in a displaceable manner along an optical axis, characterized in that a) a first front lens-element group (G1) as viewed from an object side is arranged in a stationary manner, b) a second lens-element group having a positive refractive power as a focusing front group (G2) is arranged in a displaceable manner, c) a third lens-element group having a positive refractive power containing a stationary iris diaphragm (AP), the aperture of which is adjustable, as a central group (G3) is arranged in a stationary manner, d) a fourth lens-element group having a positive refractive power as a focusing back group (G4) is arranged in a displaceable manner, and e) a fifth back lens-element group (G5) is arranged in a stationary manner relative to an imaging plane (IM) in a lens barrel and both the focusing front group (G2) and the focusing back group (G4) are movable jointly relative to one another and to the lens-element groups (G1, G3, G5) arranged in a stationary manner in order to focus the lens on objects at different object distances, and the front lens-element group (G1) and the back lens-element group (G5) have a negative refractive power. a) a first front lens-element group (G1) as viewed from an object side is arranged in a stationary manner, b) a second lens-element group having a positive refractive power as a focusing front group (G2) is arranged in a displaceable manner, c) a third lens-element group having a positive refractive power containing a stationary iris diaphragm (AP), the aperture of which is adjustable, as a central group (G3) is arranged in a stationary manner, d) a fourth lens-element group having a positive refractive power as a focusing back group (G4) is arranged in a displaceable manner, and e) a fifth back lens-element group (G5) is arranged in a stationary manner
A corrosion protection agent for the preservation of cavities, which has a basic composition of 40 to 50 weight per cent of base fluid, 3 to 10 weight per cent of alkyd resin, 10 to 20 weight per cent of sulphonate and/or salicylate component, 15 to 25 weight per cent of filler, 0.003 to 0.007 weight per cent of siccative catalyst, each in relation to the total mass of the corrosion protection agent, and which, in order to adjust the rheologic properties of the corrosion protection agent, furthermore has 1 to 5 weight per cent of sheet silicate and/or 1 to 8 weight per cent of ester wax and/or paraffin wax, each in relation to the total mass of the corrosion protection agent wherein the corrosion protection agent does not have any aminic corrosion protection or binding agent components nor any anti-skin agent. 40 to 50 weight per cent of base fluid, 3 to 10 weight per cent of alkyd resin, 10 to 20 weight per cent of sulphonate and/or salicylate component, 15 to 25 weight per cent of filler, 0.003 to 0.007 weight per cent of siccative catalyst, each in relation to the total mass of the corrosion protection agent, and which, in order to adjust the rheologic properties of the corrosion protection agent, furthermore has 1 to 5 weight per cent of sheet silicate and/or 1 to 8 weight per cent of ester wax and/or paraffin wax, each in relation to the total mass of the corrosion protection agent wherein the corrosion protection agent does not have any aminic corrosion protection or binding agent components nor any anti-skin agent.
A process for manufacturing a photovoltaic device having a front contact layer stack and a semiconductor layer stack , the semiconductor layer stack including a p-type absorber layer comprising cadmium and tellurium, the process comprising: plasma cleaning an exposed surface of the absorber layer comprising cadmium and tellurium by exposing it to a plasma of ionized gases; exposing the exposed surface of the absorber layer to an atmosphere that contains from about 1% to about 60% oxygen in an otherwise inert atmosphere to form an oxide layer on the exposed surface; and forming a back contact layer stack on the oxide layer , wherein the oxide layer has a thickness of 2 Å to 100 Å. plasma cleaning an exposed surface of the absorber layer comprising cadmium and tellurium by exposing it to a plasma of ionized gases; exposing the exposed surface of the absorber layer to an atmosphere that contains from about 1% to about 60% oxygen in an otherwise inert atmosphere to form an oxide layer on the exposed surface; and forming a back contact layer stack on the oxide layer , wherein the oxide layer has a thickness of 2 Å to 100 Å.
An image stabilization apparatus comprising: a fixed member ; a movable member configured to hold an image stabilization lens and movable relative to the fixed member on a plane perpendicular to an optical axis (α) of the image stabilization lens; and a lock member that is disposed on an outer circumference side of the movable member and can be positioned at a lock position for restricting a movement of the movable member and an unlock position for enabling the movement of the movable member; characterized by a retaining member configured to fix the movable member in an eccentric state when the lock member is located at the lock position. a fixed member ; a movable member configured to hold an image stabilization lens and movable relative to the fixed member on a plane perpendicular to an optical axis (α) of the image stabilization lens; and a lock member that is disposed on an outer circumference side of the movable member and can be positioned at a lock position for restricting a movement of the movable member and an unlock position for enabling the movement of the movable member; characterized by a retaining member configured to fix the movable member in an eccentric state when the lock member is located at the lock position.
Method for operating an attachment for a vacuum cleaner , said attachment comprising an electrically rotatable bristle roller and a motor for driving the bristle roller , the bristle roller being rotated in an operating rotational direction during operation, the bristle roller being rotated in a rotational direction counter to the operating rotational direction - reverse rotational direction - if a blockage of the bristle roller is detected, characterised in that , when a blockage is detected, the bristle roller is rotated in the reverse rotational direction by a predetermined or predeterminable rotational angle - reverse rotational angle -, or, when the blockage is detected, the motor of the bristle roller is stopped and the bristle roller is rotated incrementally in the reverse rotational direction by a predetermined or predeterminable rotational angle by the user actuating a switching element .