mhurhangee/patent-ind-claim-en huggingface dataset:
A child-resistant closure for a container, the closure comprising outer and inner nested caps each having a top panel and a side skirt depending generally peripherally therefrom, said outer cap loosely generally encompassing said inner cap to allow relative rotary and axial movement there between, the outer and inner caps having corresponding drive formations which can be brought into driving engagement wher the caps are moved axially towards one another to a first axial position, the outer cap comprising a plurality of spring members for urging the inner and outer caps axially away from each other to a second axial position, the inner cap comprising a top panel provided with a plurality of ramps , the spring members providing a biasing force to maintain said outer and inner caps in the second axial position and drivingly engaging the ramps in the second axial position so as to drive the outer and inner caps together in an screwing direction, but slipping over the ramps freely in an unscrewing direction, downward pressure on the outer cap overcoming the spring finger bias to move the caps to the first axial position to allow unscrewing of the closure using the inner and outer cap drive formations, in which the external surface of the inner cap side skirt includes a plurality of substantially full height axial ribs for allowing venting when the outer and inner caps are initially assembled together, in which the inner cap drive formations comprise a plurality of castellations , characterised in that the castellations upstand from the inner cap top panel, in that each full height axial rib connects to a castellation, and in that the castellations comprise a first radially extending side wall upstanding from the top panel and a second radially extending side wall upstanding from the top panel, said first and second side walls being located at or towards the periphery of the top panel and being mutually spaced, the first and second side walls are joined at one end by an arcuate cross wall which upstands from the top panel, spaced from the periphery thereof.
A sensor for the acquisition of an optical signal modulated at an acoustic frequency, comprising a plurality of pixels, each comprising: - a photodiode ; and - an integration circuit configured to, at each period (T US ) of the modulated optical signal, integrate a photocurrent delivered by the photodiode successively into K capacitors (Ci), K being an integer greater than or equal to 2; the sensor being characterized in that each pixel further comprises: - a phase detection circuit (80; 90) configured to detect an order in the crossing of a predetermined voltage threshold (TH) by the K capacitors and to generate, according to the detected order, a signal (V PH ) representative of the phase of the modulated optical signal. - a photodiode ; and - an integration circuit configured to, at each period (T US ) of the modulated optical signal, integrate a photocurrent delivered by the photodiode successively into K capacitors (Ci), K being an integer greater than or equal to 2; - a phase detection circuit (80; 90) configured to detect an order in the crossing of a predetermined voltage threshold (TH) by the K capacitors and to generate, according to the detected order, a signal (V PH ) representative of the phase of the modulated optical signal.
A method comprising: receiving , by an access device (104; 506) from a communication device (102; 508), a communication device public key (Qc); determining , by the access device (104; 506), a first session key using an access device private key (dterm) and the communication device public key (Qc); transmitting , by the access device (104; 506) to the communication device (102; 508), a resource provider certificate (Mcertificate) and an access device certificate (Tcertificate); determining , by the communication device (102; 508), a resource provider public key (Pmerch) using data in the resource provider certificate (Mcertificate) and using a certificate authority public key (Pca); determining , by the communication device (102; 508), an access device public key (Pterm) using data (Pt, et) in the access device certificate (Tcertificate) and using the resource provider public key (Pmerch); and deriving , by the communication device (102; 508), a second session key using the access device public key (Pterm) and using a communication device private key (dc), wherein the second session key is the same as the first session key; establishing a secure channel between the access device (104; 506) and the communication device (102; 508) using the first session key and the second session key; and receiving data, by the access device (102; 508) from the communication device (102; 508), using the secure channel. receiving , by an access device (104; 506) from a communication device (102; 508), a communication device public key (Qc); determining , by the access device (104; 506), a first session key using an access device private key (dterm) and the communication device public key (Qc); transmitting , by the access device (104; 506) to the communication device (102; 508), a resource provider certificate (Mcertificate) and an access device certificate (Tcertificate); determining , by the communication device (102; 508), a resource provider public key (Pmerch) using data in the resource provider certificate (Mcertificate) and using a certificate authority public key (Pca); determining , by the communication device (102; 508), an access device public key (Pterm) using data (Pt, et) in the access device certificate (Tcertificate) and using the resource provider public key (Pmerch); and deriving , by the communication device (102; 508), a second session key using the access device public key (Pterm) and using a communication device private key (dc), wherein the second session key is the same as the first session key; establishing a secure channel between the access device (104; 506) and the communication device (102; 508) using the first session key and the second session key; and receiving data, by the access device (102; 508) from the communication device (102; 508), using the secure channel.
A method for calculating contour deviations (ka) for controlling a laser cutting machine (L), which can arise when cutting workpieces (W) with a machining laser beam of the laser cutting machine (L), having the following method steps: a) reading in a cutting plan (sp) that specifies a target path for a laser cutting head (SK) of the laser cutting machine (L); b) defining a reference texture (RT) or reading in a reference texture (RT) from the cutting plan (sp), wherein the reference texture (RT) is an engraving; c) performing an application run of the laser cutting head (SK) to apply the reference texture (RT) at least at selected positions along the target path on the workpiece (W); d) performing an image capture run of the laser cutting head (SK) to capture at least one image (b), in which at least part of the applied reference texture (RT) is imaged, by means of an optical capture device (K) arranged on the laser cutting head (SK), at at least one of the selected positions along the target path; e) reconstructing at least one virtual reconstruction image (v) on the basis of control values (sw) that are calculated from the target path and on the basis of the defined reference texture (RT); f) using an image processing means (BV) to compare the captured at least one image (b) and the reconstructed virtual reconstruction image (v) to determine a displacement vector (vv) between associated pixels in each case; g) outputting the contour deviation (ka) calculated from the determined displacement vector (vv). a) reading in a cutting plan (sp) that specifies a target path for a laser cutting head (SK) of the laser cutting machine (L); b) defining a reference texture (RT) or reading in a reference texture (RT) from the cutting plan (sp), wherein the reference texture (RT) is an engraving; c) performing an application run of the laser cutting head (SK) to apply the reference texture (RT) at least at selected positions along the target path on the workpiece (W); d) performing an image capture run of the laser cutting head (SK) to capture at least one image (b), in which at least part of the applied reference texture (RT) is imaged, by means of an optical capture device (K) arranged on the laser cutting head (SK), at at least one of the selected positions along the target path; e) reconstructing at least one virtual reconstruction image (v) on the basis of control values (sw) that are calculated from the target path and on the basis of the defined reference texture (RT); f) using an image processing means (BV) to compare the captured at least one image (b) and the reconstructed virtual reconstruction image (v) to determine a displacement vector (vv) between associated pixels in each case; g) outputting the contour deviation (ka) calculated from the determined displacement vector (vv).
A patch layup system comprising a patch gripper , a robotic arm and a device for automatically rooting patches , the patch gripper and the device for automatically rooting patches being fastened on the robotic arm , the routing device comprising a location intended to accommodate a winding of material intended for the production of patches , a system for unwinding the wound material, and a system for positioning a patch intended to be able to be positioned opposite to the gripper of patch , the layup system being characterised in that the rooting device is fastened by an axis of rotation on the robotic arm . the routing device comprising a location intended to accommodate a winding of material intended for the production of patches , a system for unwinding the wound material, and a system for positioning a patch intended to be able to be positioned opposite to the gripper of patch , the layup system being characterised in that the rooting device is fastened by an axis of rotation on the robotic arm .
A flat glass, wherein, at a thickness of 1 mm, the flat glass exhibits a transmittance to electromagnetic radiation which is 20 % or more, preferably 60 % or more, more preferably 85 % or more, and most preferably 88 % or more at a wavelength of 254 nm; and is 82 % or more at a wavelength of 300 nm; and is 90 % or more at a wavelength of 350 nm; and is 92 % or more at a wavelength of 546 nm; and is 92.5 % or more at a wavelength of 1400 nm; and is 91.5 % or more in a wavelength range from 380 nm to 780 nm; and is 92.5 % or more in a wavelength range from 780 nm to 1500 nm; wherein the following applies for the ratio of weight fractions of iron ions contained in the flat glass: 0.1 ≤ Fe 2 + / Fe 2 + + Fe 3 + ≤ 0.3 ; and wherein the following applies for the weight fractions, in ppm, of the following metals Fe, Co, Ni, Cr, Cu, Mn, V contained in the flat glass: Σ 1 * Fe + 300 * Co + 70 * Ni + 50 * Cr + 20 * Cu + 5 * Mn + 2 * V ppm by mass is less than 200 ppm; wherein the total content of the considered metals is considered irrespective of the oxidation state thereof. is 20 % or more, preferably 60 % or more, more preferably 85 % or more, and most preferably 88 % or more at a wavelength of 254 nm; and is 82 % or more at a wavelength of 300 nm; and is 90 % or more at a wavelength of 350 nm; and is 92 % or more at a wavelength of 546 nm; and is 92.5 % or more at a wavelength of 1400 nm; and is 91.5 % or more in a wavelength range from 380 nm to 780 nm; and is 92.5 % or more in a wavelength range from 780 nm to 1500 nm; wherein the following applies for the ratio of weight fractions of iron ions contained in the flat glass: 0.1 ≤ Fe 2 + / Fe 2 + + Fe 3 + ≤ 0.3 ; and wherein the following applies for the weight fractions, in ppm, of the following metals Fe, Co, Ni, Cr, Cu, Mn, V contained in the flat glass: Σ 1 * Fe + 300 * Co + 70 * Ni + 50 * Cr + 20 * Cu + 5 * Mn + 2 * V ppm by mass is less than 200 ppm; wherein the total content of the considered metals is considered irrespective of the oxidation state thereof.
A method for detecting a fault in an AC/AC exciter comprising an exciter rotor and an exciter stator , the method comprising the steps of: - obtaining a rotor current signal or a rotor voltage signal reflecting the current or voltage, respectively, at an exciter rotor winding ; - applying a frequency analysis on the obtained signal to detect any frequency components ; and - determining, on the basis of a presence of a frequency component at a first frequency f s ∗ (2 - s ), where f s is a supply frequency of the exciter stator and s is an exciter slip, whether the exciter suffers from an inter-turn short circuit in an exciter stator winding or not. - obtaining a rotor current signal or a rotor voltage signal reflecting the current or voltage, respectively, at an exciter rotor winding ; - applying a frequency analysis on the obtained signal to detect any frequency components ; and - determining, on the basis of a presence of a frequency component at a first frequency f s ∗ (2 - s ), where f s is a supply frequency of the exciter stator and s is an exciter slip, whether the exciter suffers from an inter-turn short circuit in an exciter stator winding or not.
DC/AC converter comprising a DC/DC conversion stage with galvanic isolation and a DC/AC conversion stage , wherein the DC/DC conversion stage comprises: a pair of first side terminals providing or receiving a first DC voltage, a pair of second side terminals providing or receiving a second DC voltage and coupled to the DC/AC conversion stage , at least one first side converter circuit coupled between the pair of first side terminals , and a series connection of a plurality of second side converter circuits coupled between the pair of second side terminals , and at least one transformer circuit coupling the plurality of second side converter circuits to the at least one first side converter circuit , characterized in that a connection point between two of the plurality of second side converter circuits is coupled to the DC/AC conversion stage and forms a neutral phase point thereof, and in that each of the at least one transformer circuit comprises a transformer and an inductance element coupled in series with the transformer. a pair of first side terminals providing or receiving a first DC voltage, a pair of second side terminals providing or receiving a second DC voltage and coupled to the DC/AC conversion stage , at least one first side converter circuit coupled between the pair of first side terminals , and a series connection of a plurality of second side converter circuits coupled between the pair of second side terminals , and at least one transformer circuit coupling the plurality of second side converter circuits to the at least one first side converter circuit , characterized in that a connection point between two of the plurality of second side converter circuits is coupled to the DC/AC conversion stage and forms a neutral phase point thereof, and in that each of the at least one transformer circuit comprises a transformer and an inductance element coupled in series with the transformer.
A cast film comprising a polyethylene composition comprising the reaction product of ethylene and optionally one or more alpha-olefin comonomers, wherein the polyethylene composition comprises greater than 50wt% of units derived from ethylene and less than 30wt% of units derived from one or more alpha-olefin comonomers; wherein said polyethylene composition is characterized by the following properties: a. a melt index, I 2 , measured according to ASTM D 1238 (2.16 kg, 190°C), of from 1 to 20 g/10 min; b. a density (measured according to ASTM D792) of from 0.940 to 0.970 g/cm 3 ; c. a melt flow ratio, I 10 /I 2 , wherein I 10 is measured according to ASTM D1238 (10 kg, 190°C) of from 5.5 to 7.0; d. a molecular weight distribution (M w /M n ) of from 2.2 to 3.5, determined according to the description; and e. a vinyl unsaturation of greater than 0.12 vinyls per one thousand carbon atoms present in the backbone of the composition; wherein the film comprises from 50 to 100 % by total weight of polymers present in the film, of the polyethylene composition. a. a melt index, I 2 , measured according to ASTM D 1238 (2.16 kg, 190°C), of from 1 to 20 g/10 min; b. a density (measured according to ASTM D792) of from 0.940 to 0.970 g/cm 3 ; c. a melt flow ratio, I 10 /I 2 , wherein I 10 is measured according to ASTM D1238 (10 kg, 190°C) of from 5.5 to 7.0; d. a molecular weight distribution (M w /M n ) of from 2.2 to 3.5, determined according to the description; and e. a vinyl unsaturation of greater than 0.12 vinyls per one thousand carbon atoms present in the backbone of the composition;
Tap for delivering liquids from a container, comprising: - a supporting body comprising at an end thereof fitting means (4.8) with the container, said supporting body further comprising a first opening (4.5) for making liquid go out, and connecting means (4.7) adapted to be connected to connecting means present on a connector ; - a central pin fixedly connected to a central geometry (4.10) of the supporting body and comprising at an end thereof a fastening geometry (3.1) and at an opposite end an abutment geometry (3.3) for opening the connector when it is connected to the tap ; characterized in that said tap is completely made of plastic material, and further comprises: - a membrane-type elastic sealing valve connected to the fastening geometry (3.1) of the central pin , adapted to allow automatically closing the tap and to perform an operating sealing of the same with the supporting body ; - a control member connected to the elastic valve for opening and closing the tap , said control member being adapted to be actuated through a thrust of the connector on end geometries (5.2) with which the control member is equipped, to open the tap transmitting a force to the valve connected to the control member . - a supporting body comprising at an end thereof fitting means (4.8) with the container, said supporting body further comprising a first opening (4.5) for making liquid go out, and connecting means (4.7) adapted to be connected to connecting means present on a connector ; - a central pin fixedly connected to a central geometry (4.10) of the supporting body and comprising at an end thereof a fastening geometry (3.1) and at an opposite end an abutment geometry (3.3) for opening the connector when it is connected to the tap ; - a membrane-type elastic sealing valve connected to the fastening geometry (3.1) of the central pin , adapted to allow automatically closing the tap and to perform an operating sealing of the same with the supporting body ; - a control member connected to the elastic valve for opening and closing the tap , said control member being adapted to be actuated through a thrust of the connector on end geometries (5.2) with which the control member is equipped, to open the tap transmitting a force to the valve connected to the control member .
A decoder for generating a time domain audio signal by waveform decoding, the decoder comprising: - means for receiving an encoded data stream; - means for generating a first subband signal by decoding data values of the encoded data stream, the first subband signal corresponding to a critically sampled subband domain signal representation of the time domain audio signal; - conversion means for generating a second subband signal from the first subband signal or a processed version thereof by subband processing, the second subband signal corresponding to a non-critically sampled complex subband domain representation of the time domain audio signal; a parametric decoder for parametrically decoding parametric data using the second subband signal; and - a synthesis filter bank for generating the time domain audio signal from the second subband signal. - means for receiving an encoded data stream; - means for generating a first subband signal by decoding data values of the encoded data stream, the first subband signal corresponding to a critically sampled subband domain signal representation of the time domain audio signal; - conversion means for generating a second subband signal from the first subband signal or a processed version thereof by subband processing, the second subband signal corresponding to a non-critically sampled complex subband domain representation of the time domain audio signal; a parametric decoder for parametrically decoding parametric data using the second subband signal; and - a synthesis filter bank for generating the time domain audio signal from the second subband signal.
Shelving system with element shelves, each having a cubature of its layout in the form of a basic geometric shape including a hexagon and a rectangle and which can be placed juxtaposed side by side against one another, with a rectangular element shelf with rectangular cubature (16', 16", 16"', 16'''') and with a hexagonal element shelf with hexagonal cubature in which the hexagon of the cubature of the hexagonal element shelf has a distance between two opposite, parallel sides of the cubature which equals the length of one of the sides of the rectangle of the cubature of the rectangular element shelf, each with shelves one above the other, in which opposite sides of the cubature are parallel and the hexagonal element shelf is configured to place an element shelf of the system on the circumference of the hexagon of the cubature on every other side.
A computer-implemented method for presenting information, comprising: presenting , by a computing device , a user interface that includes a first image and a second image that is an image that is pannable; receiving , by the computing device, first user input that moves the user interface in a first direction; moving , by the computing device and in response to having received the first user input, the user interface in the first direction by: (i) moving the first image in the first direction to correspond to movement of the first user input, (ii) moving the second image in the first direction to correspond to movement of the first user input, and (iii) panning the second image in a second direction at the same time that the second image is moved in the first direction; receiving , by the computing device, second user input that interacts with the second image to pan the second image; and panning , by the computing device and in response to having received the second user input, the second image by replacing a first portion of the second image with a second portion of the second image, wherein the first portion of the second image is different from the second portion of the second image. presenting , by a computing device , a user interface that includes a first image and a second image that is an image that is pannable; receiving , by the computing device, first user input that moves the user interface in a first direction; moving , by the computing device and in response to having received the first user input, the user interface in the first direction by: (i) moving the first image in the first direction to correspond to movement of the first user input, (ii) moving the second image in the first direction to correspond to movement of the first user input, and (iii) panning the second image in a second direction at the same time that the second image is moved in the first direction; (i) moving the first image in the first direction to correspond to movement of the first user input, (ii) moving the second image in the first direction to correspond to movement of the first user input, and (iii) panning the second image in a second direction at the same time that the second image is moved in the first direction; receiving , by the computing device, second user input that interacts with the second image to pan the second image; and panning , by the computing device and in response to having received the second user input, the second image by replacing a first portion of the second image with a second portion of the second image, wherein the first portion of the second image is different from the second portion of the second image.