mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor device (10; 10a; 10b; 110) comprising: a first conductive plate ; a plurality of semiconductor chips disposed on the first conductive plate (12; 112); and a first external connection terminal connected to the first conductive plate (12; 112), wherein the plurality of semiconductor chips comprises a first semiconductor chip , a second semiconductor chip , and a third semiconductor chip , the second semiconductor chip is located between the first semiconductor chip and the third semiconductor chip , characterized in that a portion of the first conductive plate (12; 112) where the first external connection terminal is connected is closest to the second semiconductor chip among the first, second, and third semiconductor chips , and the first conductive plate comprises an aperture located between the portion of the first conductive plate where the first external connection terminal is connected and a portion of the first conductive plate (12; 112) where the second semiconductor chip is connected. a first conductive plate ; a plurality of semiconductor chips disposed on the first conductive plate (12; 112); and a first external connection terminal connected to the first conductive plate (12; 112), wherein the plurality of semiconductor chips comprises a first semiconductor chip , a second semiconductor chip , and a third semiconductor chip , the second semiconductor chip is located between the first semiconductor chip and the third semiconductor chip , characterized in that a portion of the first conductive plate (12; 112) where the first external connection terminal is connected is closest to the second semiconductor chip among the first, second, and third semiconductor chips , and the first conductive plate comprises an aperture located between the portion of the first conductive plate where the first external connection terminal is connected and a portion of the first conductive plate (12; 112) where the second semiconductor chip is connected.
A one-component pressure-sensitive adhesive composition in the form of an aqueous polymer dispersion comprising at least one pressure-sensitive adhesive polymer formed by emulsion polymerization of (i) at least 60 wt%, based on the sum of the monomers, of at least one soft (meth)acrylic ester monomer which when polymerized as a homopolymer has a glass transition temperature of less than 0°C, (ii) 0.1 to 10 wt%, based on the sum of the monomers, of methacrylic acid, (iii) 0 to 30 wt%, based on the sum of the monomers, of styrene, (iv) optionally further monomers, different from (i) to (iii), where the polymerization takes place in the presence of 0 to 1 part by weight of chain transfer agent per 100 parts by weight of monomers, where if no chain transfer agent is used, the amount of styrene (iii) is at least 5 wt%, where the pressure-sensitive adhesive polymer has a gel content of at least 40 wt%, based on a polymer film produced from the pressure-sensitive adhesive polymer, where the gel content is based at least partly on a reversible crosslinking via metal salts, and the gel content of the pressure-sensitive adhesive polymer that is based on reversible crosslinking via metal salts is at least 10 wt%, where the metal salts which bring about the reversible crosslinking are used in uncoated form, where the gel content may also be based partly on covalent, irreversible crosslinking, and the gel content of the pressure-sensitive adhesive polymer that is based on covalent, irreversible crosslinking is 0 to 50 wt%, where the gel content was determined according to the method disclosed in the description, and where the glass transition temperature of the polymer is less than 0°C, preferably -20°C or less. (i) at least 60 wt%, based on the sum of the monomers, of at least one soft (meth)acrylic ester monomer which when polymerized as a homopolymer has a glass transition temperature of less than 0°C, (ii) 0.1 to 10 wt%, based on the sum of the monomers, of methacrylic acid, (iii) 0 to 30 wt%, based on the sum of the monomers, of styrene, (iv) optionally further monomers, different from (i) to (iii),
A combination comprising an elongate receptacle containing a drag reducing polymer, wherein the receptacle defines an internal volume which contains said polymer, wherein said internal volume is in the range 10000cm 3 to 150000cm 3 and contains a solid mass of drag reducing polymer, wherein the solid mass is substantially elongate and has a volume in the range 10000cm 3 to 150000cm 3 , wherein said receptacle includes a first end and a second end which are spaced apart along the elongate extent of the receptacle, wherein said first end is a closed end and wherein said drag reducing polymer is selected from the group comprising poly(alpha-olefin), polychloroprene, vinyl acetate polymers and copolymers, poly(alkylene oxide) (PAO), and mixtures thereof.
An ultrasound probe , comprising: a two-dimensional, 2D, transducer assembly having transducer elements (170A - 170C) arranged in rows and columns, the transducer elements having front and rear surfaces , the front surface configured to transmit and receive ultrasound signals to and from an object of interest; and a thin film flex circuit extending along the rear surface of the transducer assembly, the flex circuit having conductive traces arranged in layers and electrically interconnected to the corresponding transducer elements and characterized in that : the layers of conductive traces are enclosed within a common dielectric layer , the dielectric layer having a homogeneous composition surrounding the layers of the conductive traces. a two-dimensional, 2D, transducer assembly having transducer elements (170A - 170C) arranged in rows and columns, the transducer elements having front and rear surfaces , the front surface configured to transmit and receive ultrasound signals to and from an object of interest; and a thin film flex circuit extending along the rear surface of the transducer assembly, the flex circuit having conductive traces arranged in layers and electrically interconnected to the corresponding transducer elements and characterized in that : the layers of conductive traces are enclosed within a common dielectric layer , the dielectric layer having a homogeneous composition surrounding the layers of the conductive traces.
A nuclear power generating facility having a containment for housing a nuclear reactor and for confining radiation leaked from the nuclear reactor, the containment having a ventilation outlet for providing a controlled release to the environment surrounding the containment, for an atmospheric pressure buildup within the containment in the event the pressure of an atmospheric effluent within the containment is built up to a level that exceeded a preselected value, and the nuclear power generating facility also having, outside the containment, an associated spent fuel storage water pool , including a filter system for filtering contaminants released from or on route to the ventilation outlet , the filter system comprising: a dedicated piping system connected between an interior of the containment or the ventilation outlet and the spent fuel storage water pool for fluidly communicating any atmospheric effluent to be released from inside of the containment through the spent fuel storage water pool; one or more valves connected to the dedicated piping system for controlling the release of the atmospheric effluent to be released; a chemical injection system configured to release a chemical into the spent fuel storage water pool to facilitate a reaction with the atmospheric effluent to be released to substantially neuter any deleterious environmental impact of the atmospheric effluent to be released; and a control system connected to one or more of the chemical injection systems and/or the one or more of the valves and configured to control the release of the chemical and/or the release of the atmospheric effluent. a dedicated piping system connected between an interior of the containment or the ventilation outlet and the spent fuel storage water pool for fluidly communicating any atmospheric effluent to be released from inside of the containment through the spent fuel storage water pool; one or more valves connected to the dedicated piping system for controlling the release of the atmospheric effluent to be released; a chemical injection system configured to release a chemical into the spent fuel storage water pool to facilitate a reaction with the atmospheric effluent to be released to substantially neuter any deleterious environmental impact of the atmospheric effluent to be released; and a control system connected to one or more of the chemical injection systems and/or the one or more of the valves and configured to control the release of the chemical and/or the release of the atmospheric effluent.
A climate generator adapted to produce a flow of air controlled temperature and relative humidity values (tc, ic), comprising: - bubbler means adapted to receive a flow of air to be conditioned (Ga) having a first temperature (ta) and a first value of relative humidity (ia), comprising a predetermined volume of water (W) at a second temperature, which are adapted to emit a flow of air saturated with water vapor (Gb) at said second temperature; - heat exchanger means associated with said bubbler means , arranged to adjust said second temperature of said predetermined volume of water (W) and/or to provide a quantity of latent heat of evaporation to said predetermined volume of water (W); and characterized by further comprising heater means adapted to heat the flow of air at the dew point (Gb) exiting from the bubbler means up to said controlled temperature value of the flow of air (tc) produced by the climate generator, wherein said second temperature is established according to said temperature and relative humidity with controlled values (tc, ic) of the flow of air produced by the climate generator (Gc), so that the heating of the flow of air at the dew point (Gb) from said second temperature to said controlled temperature value results in a decrease of the relative humidity (ic) of said flow of air produced by the climate generator (Gc) to said controlled relative humidity value. - bubbler means adapted to receive a flow of air to be conditioned (Ga) having a first temperature (ta) and a first value of relative humidity (ia), comprising a predetermined volume of water (W) at a second temperature, which are adapted to emit a flow of air saturated with water vapor (Gb) at said second temperature; - heat exchanger means associated with said bubbler means , arranged to adjust said second temperature of said predetermined volume of water (W) and/or to provide a quantity of latent heat of evaporation to said predetermined volume of water (W); and characterized by further comprising heater means adapted to heat the flow of air at the dew point (Gb) exiting from the bubbler means up to said controlled temperature value of the flow of air (tc) produced by the climate generator,
A sounding reference signal, SRS, resource configuration method, wherein the method comprises: sending , by a network device, first configuration information to a terminal, wherein the first configuration information is used to configure a pattern of a sounding reference signal, SRS, resource, the SRS resource is distributed at equal intervals in frequency domain, an interval of said intervals is M subcarriers, the method being characterized in that M is an integer greater than 4, wherein a comb structure corresponding to M subcarriers distributed at the equal intervals in frequency domain is comb-M, and M is 6, 8, or 12; the first configuration information is further used to configure a cyclic shift value of the SRS resource, wherein in a case that the first configuration information satisfies a first preset condition, the first configuration information is further used to instruct the terminal to perform a preset operation; wherein the first preset condition comprises any one of the following: M=6, the bandwidth information of the SRS resource is 8 Resource Blocks, RBs, 16 RBs, or 32 RBs; and M=12, the bandwidth information of the SRS resource is 4 RBs, 8 RBs, 16 RBs, 20 RBs, 28 RBs, or 32 RBs, wherein the preset operation comprises: skipping sending the SRS resource; or truncating a generated sequence of the SRS resource and sending the truncated sequence. sending , by a network device, first configuration information to a terminal, wherein the first configuration information is used to configure a pattern of a sounding reference signal, SRS, resource, the SRS resource is distributed at equal intervals in frequency domain, an interval of said intervals is M subcarriers, the method being characterized in that M is an integer greater than 4, wherein a comb structure corresponding to M subcarriers distributed at the equal intervals in frequency domain is comb-M, and M is 6, 8, or 12; the first configuration information is further used to configure a cyclic shift value of the SRS resource, wherein in a case that the first configuration information satisfies a first preset condition, the first configuration information is further used to instruct the terminal to perform a preset operation; wherein the first preset condition comprises any one of the following: M=6, the bandwidth information of the SRS resource is 8 Resource Blocks, RBs, 16 RBs, or 32 RBs; and M=12, the bandwidth information of the SRS resource is 4 RBs, 8 RBs, 16 RBs, 20 RBs, 28 RBs, or 32 RBs, wherein the preset operation comprises: skipping sending the SRS resource; or truncating a generated sequence of the SRS resource and sending the truncated sequence. M=6, the bandwidth information of the SRS resource is 8 Resource Blocks, RBs, 16 RBs, or 32 RBs; and M=12, the bandwidth information of the SRS resource is 4 RBs, 8 RBs, 16 RBs, 20 RBs, 28 RBs, or 32 RBs, wherein the preset operation comprises: skipping sending the SRS resource; or truncating a generated sequence of the SRS resource and sending the truncated sequence. skipping sending the SRS resource; or truncating a generated sequence of the SRS resource and sending the truncated sequence.
An adjustable sharpener comprising: a body comprising a first sharpening slot ; a first arm, wherein said first arm is connected to a first abrasive element; a second arm, wherein said second arm is connected to a second abrasive element, wherein said first abrasive element and said second abrasive element are positioned in said first sharpening slot, wherein said first arm is connected to said second arm; an adjuster connected to said body, wherein the adjuster includes a front portion configured to be grasped by a user, wherein said adjuster is slidable within a recessed area of said body , wherein the recessed area includes a plurality of notches and the front portion of the adjuster engages one or more of the notches as the front portion is slid up or down within the recessed area ; and an adjustment assembly connected to said adjuster and said first arm, wherein linear movement of said adjuster causes rotational movement of said first arm. a body comprising a first sharpening slot ; a first arm, wherein said first arm is connected to a first abrasive element; a second arm, wherein said second arm is connected to a second abrasive element, wherein said first abrasive element and said second abrasive element are positioned in said first sharpening slot, wherein said first arm is connected to said second arm; an adjuster connected to said body, wherein the adjuster includes a front portion configured to be grasped by a user, wherein said adjuster is slidable within a recessed area of said body , wherein the recessed area includes a plurality of notches and the front portion of the adjuster engages one or more of the notches as the front portion is slid up or down within the recessed area ; and an adjustment assembly connected to said adjuster and said first arm,
Method for monitoring a capacity of an energy reserve for a safety device for a vehicle , which method comprises the following steps: changing the voltage (V) present at the energy reserve between a starting value (V 1 ; V 3 ) suitable for operating the safety device and a test voltage value (V 2 ; V 4 ) suitable for operating the safety device, wherein, for changing the voltage (V), a charging circuit of the energy reserve is deactivated and a discharging circuit of the energy reserve is activated; and evaluating the voltage change (ΔV) of the voltage (V) present at the energy reserve between the starting value (V 1 ; V 3 ) and the test voltage value (V 2 ; V 4 ) in order to monitor the energy reserve ; characterized in that the steps of changing and evaluating are carried out repeatedly a number of times during a driving cycle of the vehicle . changing the voltage (V) present at the energy reserve between a starting value (V 1 ; V 3 ) suitable for operating the safety device and a test voltage value (V 2 ; V 4 ) suitable for operating the safety device, wherein, for changing the voltage (V), a charging circuit of the energy reserve is deactivated and a discharging circuit of the energy reserve is activated; and evaluating the voltage change (ΔV) of the voltage (V) present at the energy reserve between the starting value (V 1 ; V 3 ) and the test voltage value (V 2 ; V 4 ) in order to monitor the energy reserve ; characterized in that the steps of changing and evaluating are carried out repeatedly a number of times during a driving cycle of the vehicle .
Method for producing a roof tile from clay, with a press mould that has a first mould half and a second mould half , wherein the mould halves are movable relative to one another between a pressing position, in which the mould halves substantially delimit a receiving space that models the shape of the finished roof tile , wherein the surface of the first mould half and the surface of the second mould half model in each case a surface of the roof tile , and a filling position, in which the mould halves are spaced apart from one another and a plastically deformable clay material can be filled into the first and/or the second mould half, wherein the first mould half and/or the second mould half has at least one recess that models a protrusion on the finished roof tile , wherein, in and/or on the recess , a first pressure element is provided, which is configured to be movable between a starting position, in which the first pressure element is set back with regard to the shape of the finished roof tile , and a compacting position, in which the first pressure element partially models the surface of the roof tile , having the following steps of: - providing the press mould , wherein the mould halves are located in the filling position and the at least one first pressure element is located in the starting position, - filling a predried, granular clay material into the receiving space , - moving the mould halves into the pressing position, wherein the clay material is compacted, - moving the at least one pressure element into the compacting position, wherein the clay material is compacted in the region of the first pressure element , wherein, at the surface of the first and/or the second mould half , at least one second pressure element is provided, which is configured to be movable between a starting position, in which the second pressure element protrudes or is set back with regard to the shape of the finished roof tile , and a compacting position, in which the second pressure element partially models the surface of the roof tile , wherein, while or after the mould halves are moved into the pressing position, the second pressure element is moved into the compacting position, characterized in that the first and/or the second pressure element is a pressure pad that has a variable-volume pressure chamber that is fillable with a pressure medium , wherein a pressure line for supplying and/or discharging the pressure medium is provided, wherein the pressure elements are moved by the pressure medium flowing into or out of the pressure chamber . - providing the press mould , wherein the mould halves are located in the filling position and the at least one first pressure element is located in the starting position, - filling a predried, granular clay material into the receiving space , - moving the mould halves into the pressing position, wherein the clay material is compacted, - moving the at least one pressure element into the compacting position, wherein the clay material is compacted in the region of the first pressure element ,
A method of filling at least one fiber channel of a fiber box of a bundle individualizer with bristle packs of loose, parallel bristles, characterized by the following steps: providing an intermediate storage that is separate and spaced apart from the fiber box, providing a mechanical transport device for bristle packs , removing a pack wrapping of a bristle pack , subsequently inserting the bristle pack into one of a plurality of receptacles of an intermediate storage , in which one respective inserted bristle pack is laterally encompassed, and removing a bristle pack from one of the receptacles and transferring the bristle pack to the associated fiber channel and inserting the bristle pack into the fiber channel , in each case by the transport device . providing an intermediate storage that is separate and spaced apart from the fiber box, providing a mechanical transport device for bristle packs , removing a pack wrapping of a bristle pack , subsequently inserting the bristle pack into one of a plurality of receptacles of an intermediate storage , in which one respective inserted bristle pack is laterally encompassed, and removing a bristle pack from one of the receptacles and transferring the bristle pack to the associated fiber channel and inserting the bristle pack into the fiber channel , in each case by the transport device .
A method of controlling a crop plant pest selected from the group consisting of Diamondback moth ( Plutella xylostella ), Beet armyworm ( Spodoptera exigua ), Soybean looper ( Chrysodeixis includens ), Corn earworm ( Helicoverpa zea ), Cabbage Looper ( Trichoplusia ni ), and Southwestern Corn Borer ( Diatraea grandiosella ) comprising applying a synergistic amount of Bacillus thuringiensis subsp. aizawai and chlorantraniliprole to a plant, wherein the ratio of Bacillus thuringiensis subsp. aizawai to chlorantraniliprole is from 1:0.00003 ± 10% to 1:3 ± 10%.