mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasonic transducer array for a phased array ultrasonic transducer (200;300;400;500), the ultrasonic transducer array comprising: a bonding wire structure (502;700;1100;1200;1300;1400) comprising a plurality of bonding wire elements (504,506,508;600), each bonding wire element (504,506,508;600) consisting of a conductive column; a damping material for attenuating ultrasonic energy surrounding the bonding wire structure and interposed with the plurality of bonding wire elements , wherein the damping material defines a first face and a second face that is opposite the first face ; a plurality of ultrasonic transducers (102,104,106;210;310;410;910) arranged in a matrix, wherein the ultrasonic transducers are coupled to said first face of the damping material , each of said ultrasonic transducers coupled to one of said plurality of bonding wire elements through a contact ; and a printed circuit board comprising a plurality of circuits, wherein the printed circuit board is coupled to said second face of the damping material , each said circuit coupled to a wire element of said plurality of bonding wire elements; wherein the bonding wire structure is manufactured by additive manufacturing techniques; a filler material fills voids between each of the plurality of ultrasonic transducers and the damping material ; and each transducer has a membrane for propagating ultrasonic waves, located opposite to the first face of the damping material . a bonding wire structure (502;700;1100;1200;1300;1400) comprising a plurality of bonding wire elements (504,506,508;600), each bonding wire element (504,506,508;600) consisting of a conductive column; a damping material for attenuating ultrasonic energy surrounding the bonding wire structure and interposed with the plurality of bonding wire elements , wherein the damping material defines a first face and a second face that is opposite the first face ; a plurality of ultrasonic transducers (102,104,106;210;310;410;910) arranged in a matrix, wherein the ultrasonic transducers are coupled to said first face of the damping material , each of said ultrasonic transducers coupled to one of said plurality of bonding wire elements through a contact ; and a printed circuit board comprising a plurality of circuits, wherein the printed circuit board is coupled to said second face of the damping material , each said circuit coupled to a wire element of said plurality of bonding wire elements; wherein the bonding wire structure is manufactured by additive manufacturing techniques; a filler material fills voids between each of the plurality of ultrasonic transducers and the damping material ; and each transducer has a membrane for propagating ultrasonic waves, located opposite to the first face of the damping material .
A computer implemented malware detection method to detect malware in a network connected client computer system , the method comprising: generating a behaviour profile specifying operational behaviours of a computer system indicative of the existence of malware in the computer system; communicating the behaviour profile to the client via an interface for communicating with the client via the network; and in response to a message from the client received via the interface and indicating that the behaviour profile is exhibited by the client, identifying a reaction instruction , from a plurality of reaction instructions, for performance by the client and communicating the reaction instruction to the client via the interface, wherein the reaction instruction instructs the client to transmit at least a portion of content stored in a memory of the client, the method further comprising: receiving the at least a portion of content; and performing a malware scan on the received content. generating a behaviour profile specifying operational behaviours of a computer system indicative of the existence of malware in the computer system; communicating the behaviour profile to the client via an interface for communicating with the client via the network; and in response to a message from the client received via the interface and indicating that the behaviour profile is exhibited by the client, identifying a reaction instruction , from a plurality of reaction instructions, for performance by the client and communicating the reaction instruction to the client via the interface, wherein the reaction instruction instructs the client to transmit at least a portion of content stored in a memory of the client, the method further comprising: receiving the at least a portion of content; and performing a malware scan on the received content. receiving the at least a portion of content; and performing a malware scan on the received content.
A print pen capping apparatus for a printer , comprising: a cap station (120; 350) carrying one or more caps, wherein the cap station (120; 350) is moveable between a retracted position and a capping position in which the cap station extends a first distance in a direction transverse to a print media path, the capping position for capping the print pen, the capping to seal the print pen, wherein in the retracted position the cap station (120; 350) is to a side of the print media path in the direction transverse to the print media path, arranged such that an extent of the cap station in the direction transverse to the print media path is less than the first distance, and in the retracted position, the cap station (120; 350) is folded at the side of the print media path. a cap station (120; 350) carrying one or more caps, wherein the cap station (120; 350) is moveable between a retracted position and a capping position in which the cap station extends a first distance in a direction transverse to a print media path, the capping position for capping the print pen, the capping to seal the print pen, wherein in the retracted position the cap station (120; 350) is to a side of the print media path in the direction transverse to the print media path, arranged such that an extent of the cap station in the direction transverse to the print media path is less than the first distance, and in the retracted position, the cap station (120; 350) is folded at the side of the print media path.
An interlayer film for laminated glass comprising a light emitting layer containing a polyvinyl acetal, a light emitting material having a terephthalic acid ester structure, and a potassium salt.
Faceted gemstone made of glass containing a mixture of at least two dopants, which makes it possible to identify the faceted gemstone, and the following components: (a) 35 to 85 wt.% SiO 2 ; (b) 0 to 20 wt.% K 2 O; (c) 0 to 20 wt.% Na 2 O; (d) 0 to 5 wt.% Li 2 O; (e) 0 to 13 wt.% ZnO; (f) 0 to 11 wt.% CaO; (g) 0 to 7 wt.% MgO; (h) 0 to 10 wt.% BaO; (i) 0 to 4 wt.% Al 2 O 3 ; (j) 0 to 2 wt.% ZrO 2 ; (k) 0 to 4 wt.% B 2 O 3 ; (l) 0 to 3 wt.% F; (m) 0 to 2.5 wt.% CI; wherein the at least two dopants are selected from the group of the oxides of the rare earth metals scandium, lanthanum, cerium, praseodymium, samarium, europium, yttrium, terbium, dysprosium, holmium, thulium, ytterbium and lutetium, wherein the total amount of the oxides of the rare earth metals scandium, lanthanum, cerium, praseodymium, samarium, europium, yttrium, terbium, dysprosium, holmium, thulium, ytterbium and lutetium is 2-2000 mg/kg of the glass composition, and the stated amounts add up to 100 wt.%. (a) 35 to 85 wt.% SiO 2 ; (b) 0 to 20 wt.% K 2 O; (c) 0 to 20 wt.% Na 2 O; (d) 0 to 5 wt.% Li 2 O; (e) 0 to 13 wt.% ZnO; (f) 0 to 11 wt.% CaO; (g) 0 to 7 wt.% MgO; (h) 0 to 10 wt.% BaO; (i) 0 to 4 wt.% Al 2 O 3 ; (j) 0 to 2 wt.% ZrO 2 ; (k) 0 to 4 wt.% B 2 O 3 ; (l) 0 to 3 wt.% F; (m) 0 to 2.5 wt.% CI;
A process for the purification of (meth)acrylic acid in the absence of organic solvent and in the absence of a chemical treatment of the aldehydes, from a gaseous reaction mixture comprising (meth)acrylic acid obtained by gas-phase oxidation of a precursor of (meth)acrylic acid, said process comprising the following stages: - subjecting said reaction mixture to a dehydration, without using azeotropic solvent, in a dehydration column, resulting in a top stream and a bottom stream being obtained, - sending at least a portion of said bottom stream from the dehydration column into the upper part of a finishing column, where the light products are distilled, the heavy products are removed at the bottom of this column and a side stream is withdrawn, - sending said side stream from the finishing column to the lower third of a third distillation column, resulting in a top stream, a side stream and a bottom stream being obtained, said top stream being subjected to a condensation and then returned after condensation, partly in this column in reflux form and partly being recovered, said side stream being withdrawn in the half of the lower part of said distillation column. - subjecting said reaction mixture to a dehydration, without using azeotropic solvent, in a dehydration column, resulting in a top stream and a bottom stream being obtained, - sending at least a portion of said bottom stream from the dehydration column into the upper part of a finishing column, where the light products are distilled, the heavy products are removed at the bottom of this column and a side stream is withdrawn, - sending said side stream from the finishing column to the lower third of a third distillation column, resulting in a top stream, a side stream and a bottom stream being obtained, said top stream being subjected to a condensation and then returned after condensation, partly in this column in reflux form and partly being recovered, said side stream being withdrawn in the half of the lower part of said distillation column.
A method for transmitting acknowledgement information by a user equipment , UE, in a wireless communication system, the method comprising: receiving downlink control information scheduling 2 transmission blocks, TBs, each including one or more code block groups, CBGs; receiving (S1710) first downlink data related to the 2 TBs based on the downlink control information; and transmitting (S1720) CBG level acknowledgement, ACK, information regarding first ACK information related to a first TB and second ACK information related to a second TB in the received first downlink data, the UE determines a size of first payload for the first ACK information related to the first TB to be identical to a size of second payload for the second ACK information related to the second TB. receiving downlink control information scheduling 2 transmission blocks, TBs, each including one or more code block groups, CBGs; receiving (S1710) first downlink data related to the 2 TBs based on the downlink control information; and transmitting (S1720) CBG level acknowledgement, ACK, information regarding first ACK information related to a first TB and second ACK information related to a second TB in the received first downlink data, the UE determines a size of first payload for the first ACK information related to the first TB to be identical to a size of second payload for the second ACK information related to the second TB.
A soil monitoring system for an agricultural implement , comprising: a device associated with at least one row unit of the agricultural implement , said device resiliently engaging a bottom of a soil trench opened in a soil surface by the at least one row unit ; a soil reflectivity sensor disposed in said device for measuring soil moisture, said soil reflectivity sensor configured to measure light reflected from a soil surface within said soil trench , said light generated from a light source disposed in said device ; a processor in electrical communication with said soil reflectivity sensor ; and a display in electrical communication with said processor , said display displaying said measured moisture; characterised in that said device is a seed firmer and in that said light source is made out of light-emitting diodes. a device associated with at least one row unit of the agricultural implement , said device resiliently engaging a bottom of a soil trench opened in a soil surface by the at least one row unit ; a soil reflectivity sensor disposed in said device for measuring soil moisture, said soil reflectivity sensor configured to measure light reflected from a soil surface within said soil trench , said light generated from a light source disposed in said device ; a processor in electrical communication with said soil reflectivity sensor ; and a display in electrical communication with said processor , said display displaying said measured moisture; characterised in that said device is a seed firmer and in that said light source is made out of light-emitting diodes.
Method for treating a plurality of indicator fields for determining the pH value of an aqueous solution, the indicator fields each containing at least one indicator dye which is fixed in a non-bleeding manner to a layer comprising cellulose or regenerated cellulose and changes its color within a pH changeover range, and wherein the indicator fields have buffer capacities which differ from one another, characterized in that all indicator fields are impregnated from the outside with an impregnation which influences the buffer capacities of the indicator fields in such a way that the deviations in the buffer capacities are levelled out, wherein the impregnation is a 0.001 molar acid or a 0.001 molar base.
A hand-operated rotary brush tool, with a brush unit and a drive unit for the brush unit, wherein the brush unit is provided, for the processing of the surface of a workpiece , with a rotatably driven brush holder and a ring brush with a bristle ring with bristles projecting outwards, characterised in that the ring brush is constituted oscillating and axially adjustable, wherein moreover the brush holder is constituted at least in two parts with a fixed mounting part and an axially displaceable brush part for the axial adjustment of the ring brush and the fixed bearing part comprises a socket (B) for a plug-in pin engaging into the latter and belonging to the axially displaceable brush part , which plug-in pin is acted upon rotatably and axially by the drive unit and with the aid of which the brush holder is driven, and wherein in addition an eccentric cam rotatable by the drive unit about an axis is provided on an eccentric gear acted upon by the drive unit as a further component of the displaceable brush part and the eccentric cam with a pin (Z) acts upon the plug-in pin in the axial direction (A). the ring brush is constituted oscillating and axially adjustable, wherein moreover the brush holder is constituted at least in two parts with a fixed mounting part and an axially displaceable brush part for the axial adjustment of the ring brush and the fixed bearing part comprises a socket (B) for a plug-in pin engaging into the latter and belonging to the axially displaceable brush part , which plug-in pin is acted upon rotatably and axially by the drive unit and with the aid of which the brush holder is driven, and wherein in addition an eccentric cam rotatable by the drive unit about an axis is provided on an eccentric gear acted upon by the drive unit as a further component of the displaceable brush part and the eccentric cam with a pin (Z) acts upon the plug-in pin in the axial direction (A).
An integrated electrostatic sensor for detecting dust or debris in a gas turbine engine , the sensor comprising: an outer housing comprising a body having a first end and a second end , the first end comprising a sensing face and the second end is configured for securing the sensor to the gas turbine engine ; an electrode configured within the outer housing adjacent to the sensing face , the electrode comprising a plurality of electrons that move when charged particles within the gas turbine engine flow past the sensing face , the electrode electrically coupled to a circuit board ; an amplifier electrically coupled to the electrode , the amplifier configured to detect electron movement as a function of a particulate level of the gas turbine engine ; and the circuit board configured within the outer housing and electrically coupled to the amplifier , the circuit board configured to send one or more signals to a controller of the gas turbine engine indicative of the particulate level. an outer housing comprising a body having a first end and a second end , the first end comprising a sensing face and the second end is configured for securing the sensor to the gas turbine engine ; an electrode configured within the outer housing adjacent to the sensing face , the electrode comprising a plurality of electrons that move when charged particles within the gas turbine engine flow past the sensing face , the electrode electrically coupled to a circuit board ; an amplifier electrically coupled to the electrode , the amplifier configured to detect electron movement as a function of a particulate level of the gas turbine engine ; and the circuit board configured within the outer housing and electrically coupled to the amplifier , the circuit board configured to send one or more signals to a controller of the gas turbine engine indicative of the particulate level.
Heating device having a temperature measuring device for the heating device, the heating device having: - a flat carrier , - at least one heating conductor on the flat carrier , - an electrode on the flat carrier , - a layer structure on the carrier with an insulation layer between the heating conductor (18, 118, 21 8, 318) and the electrode , - a measuring device for detecting local high temperatures at the heating device , the measuring device being connected to the electrode and to the heating conductor and is designed to detect a temperature-dependent leakage current through the insulation layer between the heating conductor and the electrode and to evaluate it as a measure of a local temperature change at the heating device , wherein: - the electrode consists of a material with a temperature dependence of its electrical resistance, the temperature dependency is between 0.0005/°C and 0.01/°C or between 500 ppm/K and 10,000 ppm/K in a temperature range between 0°C and 500°C, - the temperature measuring device is connected to the electrode for measuring a temperature at the electrode using the temperature dependence of the electrical resistance of the electrode , characterized in that : - the electrode is elongated, - the electrode has two electrode connections and is connected to the temperature measuring device by means of the latter. - a flat carrier , - at least one heating conductor on the flat carrier , - an electrode on the flat carrier , - a layer structure on the carrier with an insulation layer between the heating conductor (18, 118, 21 8, 318) and the electrode , - a measuring device for detecting local high temperatures at the heating device , the measuring device being connected to the electrode and to the heating conductor and is designed to detect a temperature-dependent leakage current through the insulation layer between the heating conductor and the electrode and to evaluate it as a measure of a local temperature change at the heating device , - the electrode consists of a material with a temperature dependence of its electrical resistance, the temperature dependency is between 0.0005/°C and 0.01/°C or between 500 ppm/K and 10,000 ppm/K in a temperature range between 0°C and 500°C, - the temperature measuring device is connected to the electrode for measuring a temperature at the electrode using the temperature dependence of the electrical resistance of the electrode , - the electrode is elongated, - the electrode has two electrode connections and is connected to the temperature measuring device by means of the latter.
A working machine, comprising: a lower traveling body ; an upper rotating body rotatably mounted on said lower traveling body , said upper rotating body having an upper frame ; a hydraulic device provided on the upper frame ; an electric device to be cooled down; characterized by a stand attached to the upper frame of said upper rotating body , said stand comprising: a plurality of supports each extending upward from the upper frame ; a top plate attached to between upper ends of said plurality of supports , said electric device being installed on said top plate , said plurality of supports and the top plate defining a space (S), the hydraulic device being accommodated in the space (S) under said top plate ; and a heat insulating member for protecting the electric device installed on said top plate against heat from said hydraulic device accommodated in the space (S). a lower traveling body ; an upper rotating body rotatably mounted on said lower traveling body , said upper rotating body having an upper frame ; a hydraulic device provided on the upper frame ; an electric device to be cooled down; characterized by a stand attached to the upper frame of said upper rotating body , said stand comprising: a plurality of supports each extending upward from the upper frame ; a top plate attached to between upper ends of said plurality of supports , said electric device being installed on said top plate , said plurality of supports and the top plate defining a space (S), the hydraulic device being accommodated in the space (S) under said top plate ; and a heat insulating member for protecting the electric device installed on said top plate against heat from said hydraulic device accommodated in the space (S). a plurality of supports each extending upward from the upper frame ; a top plate attached to between upper ends of said plurality of supports , said electric device being installed on said top plate , said plurality of supports and the top plate defining a space (S), the hydraulic device being accommodated in the space (S) under said top plate ; and a heat insulating member for protecting the electric device installed on said top plate against heat from said hydraulic device accommodated in the space (S).
A method for reducing continuous-wakeup delay of a Bluetooth loudspeaker, the method comprising the following steps: resetting a wakeup flag bit to wait for a next wakeup, when a stop-recording instruction sent by a terminal equipment through a Bluetooth serial port communication protocol is received, after resetting the wakeup flag bit, playing voice data when the voice data as fed back by the terminal equipment is received, wherein the voice data is a response data of voice data collected when the Bluetooth loudspeaker is previously awakened; and executing a wakeup-interruption operation when a preset wakeup keyword is received by the Bluetooth loudspeaker. resetting a wakeup flag bit to wait for a next wakeup, when a stop-recording instruction sent by a terminal equipment through a Bluetooth serial port communication protocol is received, after resetting the wakeup flag bit, playing voice data when the voice data as fed back by the terminal equipment is received, wherein the voice data is a response data of voice data collected when the Bluetooth loudspeaker is previously awakened; and executing a wakeup-interruption operation when a preset wakeup keyword is received by the Bluetooth loudspeaker.