mhurhangee/patent-ind-claim-en huggingface dataset:
A method for placing pieces (P-1 to P-4) intended to be cut automatically from a fabric (T) having a pattern (M) that repeats at a predetermined pitch, called pattern pitch, the method comprising a step of: a- determining a list of pieces to be placed on the fabric; characterised by the steps of: b- for at least one piece of the placement, calculating a contour to be placed (Cp) around the piece, the contour comprising a variable margin in order to avoid an overlap between adjacent pieces, the margin being a function of a predefined rate of variation of the fabric and of at least one predetermined constraint of placement of the piece on the fabric; and c- developing a theoretical placement of the pieces on the fabric taking into account the contour to be placed of each piece. a- determining a list of pieces to be placed on the fabric; b- for at least one piece of the placement, calculating a contour to be placed (Cp) around the piece, the contour comprising a variable margin in order to avoid an overlap between adjacent pieces, the margin being a function of a predefined rate of variation of the fabric and of at least one predetermined constraint of placement of the piece on the fabric; and c- developing a theoretical placement of the pieces on the fabric taking into account the contour to be placed of each piece.
An arrangement for fault discovery in a Passive Optical Network, PON, comprising - a multistage power splitter comprising a number K of 1:N splitters , each of the 1:N splitters having an input and a number N of outputs, said N outputs being connected to first inputs, respectively, of N ∗ K items of 2:M splitters (131, 132, 231-233, 331-336), each of the 2:M splitters (131, 132, 231-233, 331-336) having two inputs and a number M of outputs, wherein N, K and M are integers greater than 1, and wherein K is a number of Optical Line Terminals, OLTs, for connection to said inputs, respectively, of the 1:N splitters, - an Optical Time Domain Reflectometry, OTDR, device capable of inserting an OTDR signal into the power splitter , characterized in that the OTDR device is a tuneable or multiwavelength OTDR and is connected to a Wavelength Division Multiplexor, WDM, having one input connected to an output of the OTDR device and N ∗ K outputs connected to second inputs, respectively, of the N ∗ K items of 2:M splitters (131, 132, 231-233, 331-336), whereby the OTDR signal is enabled to be inserted in the power splitter via said second inputs of the 2:M splitters (131, 132, 231-233, 331-336), wherein the OTDR device is further configured to analyse fibre scattering in order to locate a fault in a fibre from the power splitter in a downstream direction. - a multistage power splitter comprising a number K of 1:N splitters , each of the 1:N splitters having an input and a number N of outputs, said N outputs being connected to first inputs, respectively, of N ∗ K items of 2:M splitters (131, 132, 231-233, 331-336), each of the 2:M splitters (131, 132, 231-233, 331-336) having two inputs and a number M of outputs, wherein N, K and M are integers greater than 1, and wherein K is a number of Optical Line Terminals, OLTs, for connection to said inputs, respectively, of the 1:N splitters, - an Optical Time Domain Reflectometry, OTDR, device capable of inserting an OTDR signal into the power splitter ,
A 3D printer system for dispensing concrete, mortar or the like with a nozzle having a main opening for supplying the concrete, mortar or the like, with at least one additional opening for supplying at least one additive, as well as a discharge opening for discharging the concrete mixed with the additive, mortar or the like, characterised in that an actively driven mixing mechanism having a mixing tube is provided between the additional opening and the discharge opening , and the internal diameter of the mixing tube is 2 - 8 cm, preferably 2 - 6 cm, most preferably 2 - 4 cm.
A sensor data transmission system comprising: a central processor ; a first sensor assembly including a first sensor , a first processor and a first relay , wherein the first sensor is configured to detect a first condition, the first processor is configured to receive a first condition detected signal from the first sensor and open the first relay at least once within a first pre-determined time interval , wherein the opening pattern of the first relay within the first pre-determined time interval identifies the first condition and wherein the first pre-determined time interval is preprogrammed into the first processor; a second sensor assembly including a second sensor , second processor and a second relay , wherein the second sensor is configured to detect a second condition, the second processor is configured to receive a second condition detected signal from the second sensor and open the second relay at least once within a second pre-determined time interval , wherein the opening pattern of the second relay within the second pre-determined time interval identifies the second condition and wherein the second pre-determined time interval is preprogrammed into the second processor; a first communication conductor in electrical contact between the first and second processors and interposed by the second relay ; and a second communication conductor in electrical contact between the central processor and the first processor and interposed by the first relay . a central processor ; a first sensor assembly including a first sensor , a first processor and a first relay , wherein the first sensor is configured to detect a first condition, the first processor is configured to receive a first condition detected signal from the first sensor and open the first relay at least once within a first pre-determined time interval , wherein the opening pattern of the first relay within the first pre-determined time interval identifies the first condition and wherein the first pre-determined time interval is preprogrammed into the first processor; a second sensor assembly including a second sensor , second processor and a second relay , wherein the second sensor is configured to detect a second condition, the second processor is configured to receive a second condition detected signal from the second sensor and open the second relay at least once within a second pre-determined time interval , wherein the opening pattern of the second relay within the second pre-determined time interval identifies the second condition and wherein the second pre-determined time interval is preprogrammed into the second processor; a first communication conductor in electrical contact between the first and second processors and interposed by the second relay ; and a second communication conductor in electrical contact between the central processor and the first processor and interposed by the first relay .
Pneumatic vehicle tyre in radial design having a tread having a tread cap and a tread base , a carcass insert , electrically nonconductive sidewalls and at least one electrically conductive component or element in a bead region which comes into contact with the wheel rim when the tyre is mounted thereon, wherein the tread base is electrically conductive and is in contact with at least one carbon centre beam that permeates the tread cap , as a result of which the tread base is in electrically conductive connection with the outer surface of the tread, wherein filaments (12a-12i) provided with electrically conductive coating have been introduced at least in one sidewall region, the coating of which forms electrically conductive passages between the tread base and the at least one electrically conductive component or element in the bead region, wherein an electrically conductive component, an electrically conductive connection and an electrically conductive coating are one that has an electrical resistance of < 1 x 10 8 ohms, wherein the filaments (12a-12i) have been set on the inside of the sidewall and the at least one electrically conductive component or element in the bead region in such a way that the electrically conductive coating of the filaments (12a-12i) forms vulcanized electrically conductive passages both in the region of the interface between the sidewall and the at least one electrically conductive component or element in the bead region and in the region of the interface between the sidewall and the tread base in electrically conductive connection to the outer surface of the tread, characterized in that the tread base is overlapped on the outside by the sidewalls .
A process for separating an organofluorine compound from a composition, comprising: contacting a feed stream comprising at least one first unsaturated organofluorine compound selected from the group consisting of HFO-1234yf, HFO-1234ze, HFO-1243zf, HCFO-1233xf and mixtures thereof, and at least one additional compound selected from HF with a semipermeable membrane comprising at least one polymer selected from the group consisting of polypropylene, polyvinylidene fluoride, to form a first stream rich in the at least one organofluorine compound.
A computer-implemented method for verifying functionality of a computing device , the method comprising: receiving one or more rules usable to configure a driver verifier function to capture information associated with a device driver identified by the one or more rules, wherein the driver verifier function is configured to capture information associated with a device driver identified by the one or more rules during the production use of the computing device; configuring, on the computing device, the driver verifier function to capture the information associated with the identified device driver in accordance with the one or more rules; executing, on the computing device, the configured driver verifier function ; capturing , using the configured driver verifier function, the information in response to one or more driver conditions identified by the one or more rules; allowing the computing device and the driver verifier function to continue operation without allowing a bug check if the one or more driver conditions include an error condition of the identified device driver as defined by the one or more rules, and otherwise performing an error recovery response for the identified device driver; and initiating a communication to transmit the captured information to a driver verification analysis service, wherein the driver verifier function is automatically disabled or deleted after a predetermined time. receiving one or more rules usable to configure a driver verifier function to capture information associated with a device driver identified by the one or more rules, wherein the driver verifier function is configured to capture information associated with a device driver identified by the one or more rules during the production use of the computing device; configuring, on the computing device, the driver verifier function to capture the information associated with the identified device driver in accordance with the one or more rules; executing, on the computing device, the configured driver verifier function ; capturing , using the configured driver verifier function, the information in response to one or more driver conditions identified by the one or more rules; allowing the computing device and the driver verifier function to continue operation without allowing a bug check if the one or more driver conditions include an error condition of the identified device driver as defined by the one or more rules, and otherwise performing an error recovery response for the identified device driver; and initiating a communication to transmit the captured information to a driver verification analysis service, wherein the driver verifier function is automatically disabled or deleted after a predetermined time.
A process for obtaining a soluble phosphate fraction from phosphate containing ash, in particular sewage sludge ash (SSA) and / or meat-and-bone meal ash as phosphate containing material comprising the steps of: a) providing phosphate containing ash; b) digesting the phosphate containing ash by adding nitric acid, wherein a digestion liquor comprising a soluble phosphate fraction and a soluble calcium fraction is obtained; c) precipitating the soluble calcium fraction from the digestion liquor by crystallizing calcium nitrate from the digestion liquor and providing a suspension containing calcium nitrate crystals and the soluble phosphate fraction; and d) removing the calcium nitrate crystals from the suspension and obtaining a supernatant with the soluble phosphate fraction. a) providing phosphate containing ash; b) digesting the phosphate containing ash by adding nitric acid, wherein a digestion liquor comprising a soluble phosphate fraction and a soluble calcium fraction is obtained; c) precipitating the soluble calcium fraction from the digestion liquor by crystallizing calcium nitrate from the digestion liquor and providing a suspension containing calcium nitrate crystals and the soluble phosphate fraction; and d) removing the calcium nitrate crystals from the suspension and obtaining a supernatant with the soluble phosphate fraction.
Use of a splinter binding and weight bearing foil with an adhesive and a glass pane in a smoke barrier system , the smoke barrier system comprising a fixation element , the splinter binding foil comprises a foil layer and the adhesive; wherein the adhesive is arranged next to the glass pane , and wherein the splinter binding foil is equipped to hold glass fragments of a glass pane together in case of a glass breakage, and wherein the splinter binding foil is arranged between the fixation element and the glass pane , in particular the splinter binding foil is clamped between the fixation element and the glass pane , and wherein the splinter binding foil is designed to detach from the glass pane in the case of fire and/or temperature influence, without creating any burning droplets, characterised in that the adhesive comprises a lower softening point than the foil layer, and in that the splinter binding foil is not covered by an additional glass pane.
A distal basket for a cannula assembly comprising: a cylindrical body portion installed in the cannula assembly and having a circular first edge , a circular second edge , and a central axis extending through said cylindrical body portion; at least one rib disposed between said circular first edge and said circular second edge and extending substantially parallel with said first and second edges ; a plurality of fingers extending orthogonally from said first edge , each of said fingers having a base and a distal end ; and an offset disposed on said circular second edge of said cylindrical body portion and adapted to abut an end of a coiled reinforcing member in the cannula assembly . a cylindrical body portion installed in the cannula assembly and having a circular first edge , a circular second edge , and a central axis extending through said cylindrical body portion; at least one rib disposed between said circular first edge and said circular second edge and extending substantially parallel with said first and second edges ; a plurality of fingers extending orthogonally from said first edge , each of said fingers having a base and a distal end ; and an offset disposed on said circular second edge of said cylindrical body portion and adapted to abut an end of a coiled reinforcing member in the cannula assembly .
A lead anchor for a neuromodulation lead comprising: a solid anchor block having a lumen and at least one opening , wherein said lumen is configured to receive a portion of the neuromodulation lead and wherein said opening is connected with said lumen and has a longitudinal axis (L1); an anchor body at least partially covering said anchor block ; and a fixing element having a fastening portion and a head portion , wherein said fastening portion is configured to be inserted along the axis (L1) into said opening to fix the portion of the neuromodulation lead, wherein said head portion comprises at least one first stop feature having a dimension (D4) in a radial direction (R1) with respect to said axis (L1) which is greater than a diameter (D1) of said opening ; characterized in that the anchor block comprises at least one projection or at least one eyelet projecting from the anchor block , wherein the at least one projection or the at least one eyelet protrudes from the anchor body and penetrates the anchor body . a solid anchor block having a lumen and at least one opening , wherein said lumen is configured to receive a portion of the neuromodulation lead and wherein said opening is connected with said lumen and has a longitudinal axis (L1); an anchor body at least partially covering said anchor block ; and a fixing element having a fastening portion and a head portion , wherein said fastening portion is configured to be inserted along the axis (L1) into said opening to fix the portion of the neuromodulation lead, wherein said head portion comprises at least one first stop feature having a dimension (D4) in a radial direction (R1) with respect to said axis (L1) which is greater than a diameter (D1) of said opening ; characterized in that the anchor block comprises at least one projection or at least one eyelet projecting from the anchor block , wherein the at least one projection or the at least one eyelet protrudes from the anchor body and penetrates the anchor body .
Method for operating an overflow valve in at least two stages with different throughflow Q, wherein the overflow valve is arranged in a high-pressure pump of a fuel injection system of an internal combustion engine, comprising a valve element , which is received displaceably in a housing bore and which serves for connecting a valve inlet to at least one valve outlet , and comprising a spring which is received in a spring chamber and the spring force of which forces the valve element in the direction of the valve inlet , wherein the at least one valve outlet is provided as an opening, in particular in the form of a bore which opens preferably radially into the housing bore , of a housing wall , in that the valve element comprises an interior space which is open to the valve inlet , and in that the valve element comprises a throttle opening in a peripheral wall of the interior space , which throttle opening, in a first range of the position of the valve element in the housing bore , allows a throughflow from the interior space of the valve element to the at least one valve outlet in the housing wall , wherein the free flow cross section created by the throttle opening is smaller than the free flow cross section of the at least one valve outlet , and an inflow pressure of the overflow valve is set by a predelivery pump , and wherein, in a manner dependent on the inflow pressure, the overflow valve is operated in a first stage with relatively low throughflow Q or in a second stage with relatively high throughflow Q, wherein the inflow pressure is set in a manner dependent on an engine rotational speed (n) of the internal combustion engine, on a fuel pressure (p) in a high-pressure accumulator that is supplied with fuel by the high-pressure pump , and/or on a fuel temperature (T), in particular in the high-pressure accumulator, in a drive mechanism chamber of the high-pressure pump or in a return line of the high-pressure pump , wherein, in the first stage, the throughflow Q is kept substantially constant over a desired range of the inflow pressure, and wherein, in the second stage, the throughflow Q increases steeply with increasing inflow pressure, wherein the inflow pressure for the operation of the overflow valve in the first stage is set for an engine rotational speed (n) below a specified engine rotational speed threshold value, a fuel temperature (T) below a specified temperature threshold value and/or a fuel pressure (p) below a specified pressure threshold value, and in that, otherwise, an inflow pressure for the operation of the overflow valve in the second stage is set.
Device for fastening a temperature-control body to a wall, wherein the device comprises a wall element , which serves for fastening to the wall, having a support element , which is fastened to the wall element , for supporting the temperature-control body , and at least one holding element , which is fastened to the wall element, for holding the temperature-control body , wherein, in the state in which it is fastened to the wall, the wall element has a first side facing the wall and a second side facing away from the wall, wherein the wall element is configured in the form of a profiled rail which defines a longitudinal direction (L) and which, in the region of its first longitudinal edge , comprises a first border region and, in the region of its second longitudinal edge , comprises a second border region , wherein, in the state in which the wall element is fastened to the wall, the two border regions of the profiled rail each extend away from the plane of the wall surface (Ew), respectively away from the first side of the wall element that faces the wall, wherein the first border region and the second border region of the profiled rail have, on the second side of the profiled rail that faces away from the wall, at least one respective subregion (14a, or 15a) in which, in a state in which the wall element is fastened to the wall, a respective tangential plane (T14a, T15a) applied to this subregion forms a respective angle (w1, w2) with the plane of the wall surface, characterized in that the respective angle (w1, w2) lies in the range from 95° to 175°, wherein the at least one holding element comprises in each case two contact regions (12a, 12b or 13a, 13b) in which, in its state in which it is fastened to the wall element, it respectively contacts the first border region and the second border region of the profiled rail , and/or the support element comprises two contact regions in which, in its state in which it is fastened to the wall element, it respectively contacts the first border region and the second border region of the profiled rail .
A terrain-based navigation system comprising: at least three laser range finders , each fixedly mounted to a vehicle body , each pointing in a different direction and arranged such that they can be used to calculate terrain gradient in two dimensions; and a processor arranged to: receive range data from each of the laser range finders ; receive attitude data on the attitude of the vehicle body ; process the range data and the attitude data to generate terrain profile information; and correlate the terrain profile information with stored terrain map data to estimate a position of the vehicle body . at least three laser range finders , each fixedly mounted to a vehicle body , each pointing in a different direction and arranged such that they can be used to calculate terrain gradient in two dimensions; and a processor arranged to: receive range data from each of the laser range finders ; receive attitude data on the attitude of the vehicle body ; process the range data and the attitude data to generate terrain profile information; and correlate the terrain profile information with stored terrain map data to estimate a position of the vehicle body . receive range data from each of the laser range finders ; receive attitude data on the attitude of the vehicle body ; process the range data and the attitude data to generate terrain profile information; and correlate the terrain profile information with stored terrain map data to estimate a position of the vehicle body .