mhurhangee/ep-ind-claims huggingface dataset:
A web device comprising a plurality of reinforcing yarns (110, 120) divided into at least two groups, a first group, identified as 0° reinforcing yarns, being oriented in a longitudinal direction, and a second group, identified as 90 ° reinforcing yarns, being oriented at right angles to said longitudinal direction of the first group, wherein both groups of reinforcing yarns (110, 120) are loosely held together by enveloping fibers loosely enveloping the reinforcing yarns (110, 120), at least in part, such that movability of any one of the reinforcing yarns (110, 120) relatively to an adjacent reinforcing yarn (110, 120) is guaranteed, resulting in draping of the web for the purpose of forming concave or convex structures is effected by drawing the reinforcing yarns (110, 120, 125) of all groups in from the peripheral region of the web, characterized in that local drapability is possible without stretching or creasing of adjacent reinforcing yarns taking place on forming concave or convex structures.
Method for producing a fermentable sugar from a lignocellulosic material wherein the lignocellulosic material is contacted with a laccase and a mixture of cellulose-degrading enzymes, either simultaneously or in a sequentially deferred fashion, wherein the laccase is the Bacillus spore coat protein CotA.
An aircraft control system mountable on an aircraft, the system comprising: - a flight specification acquisition unit configured to acquire flight specifications of the aircraft and output numerical values thereof, - flight controllers (11, 11a, 11b) constituting a redundant system of flight control functions, each of the flight controllers (11, 11a, 11b) having the same control software configured to perform an arithmetic operation for aircraft control on a basis of the numerical values of the flight specifications, characterized by: - a noise generator for the flight controllers (11, 11a, 11b), the noise generator being configured to generate noises different from each other; and - a noise outputting unit configured to individually superimpose the noises on the numerical value of one of the flight specifications output from the flight specification acquisition unit, generate new numerical values of flight specifications different from each other, and output the new numerical values to the flight controllers (11, 11a, 11b). - a flight specification acquisition unit configured to acquire flight specifications of the aircraft and output numerical values thereof, - flight controllers (11, 11a, 11b) constituting a redundant system of flight control functions, each of the flight controllers (11, 11a, 11b) having the same control software configured to perform an arithmetic operation for aircraft control on a basis of the numerical values of the flight specifications, - a noise generator for the flight controllers (11, 11a, 11b), the noise generator being configured to generate noises different from each other; and - a noise outputting unit configured to individually superimpose the noises on the numerical value of one of the flight specifications output from the flight specification acquisition unit, generate new numerical values of flight specifications different from each other, and output the new numerical values to the flight controllers (11, 11a, 11b).
A gaming system, comprising; a gaming server, a first device, the first device having first motion sensors, a second device, wherein the second device includes an asynchronous web application downloaded from the gaming server having gaming logic, and a third device, the third device having second motion sensors, and configured to manage at least one game, comprising means to carry out the following steps: (a) a first connection is established between the first device and the gaming server; (b) a second connection is established between the second device and the gaming server; (c) a third connection is established between the third device and the gaming server; (d) at the gaming server, via the first connection, first device game motion data is received from the first device, the first device game motion data determined using the first motion sensors, responsive to the first device being moved by a first player during a game; (e) at the second device, first image content is displayed related to the game, the first image content rendered at least in part based on the game motion data received from the first device, (f) at the gaming server, via the third connection, third device game motion data is received from the third device, the third device game motion data determined using the second motion sensors, responsive to the third device being moved by a second player during the game; and (g) at the second device related to the game, second image content is displayed, the second image content rendered at least in part based on the game motion data received from the third device. (a) a first connection is established between the first device and the gaming server; (b) a second connection is established between the second device and the gaming server; (c) a third connection is established between the third device and the gaming server; (d) at the gaming server, via the first connection, first device game motion data is received from the first device, the first device game motion data determined using the first motion sensors, responsive to the first device being moved by a first player during a game; (e) at the second device, first image content is displayed related to the game, the first image content rendered at least in part based on the game motion data received from the first device, (f) at the gaming server, via the third connection, third device game motion data is received from the third device, the third device game motion data determined using the second motion sensors, responsive to the third device being moved by a second player during the game; and (g) at the second device related to the game, second image content is displayed, the second image content rendered at least in part based on the game motion data received from the third device.
Converter building comprising at least one room (4; 40, 41, 42, 43, 44, 45, 46, 47) having a solid room wall (400, 410, 420, 430, 440, 450, 460, 470) enclosing an interior space and an electrical active part (401, 411, 421, 431, 441, 451, 461, 471) contained in said interior space, the room wall (400, 410,..., 470) having at least one opening (402, 412, 422, 432, 442, 452, 462, 472), which is designed such that it allows a human to enter the interior space, characterized in that the opening (402, 412,..., 472) is sealable, the room wall (400, 410,..., 470) encloses the interior space in a gas-tight manner when the opening (402, 412,..., 472) is sealed, and the interior space contains a dielectric insulation medium comprising a dielectric insulation component C1 other than air.
A wireless communication method, comprising: receiving, by a terminal device, first control information on a primary carrier; determining, by the terminal device, first indication information carried in the first control information, wherein a format of the first indication information carried in the first control information is according to whether the first control information carries scheduling information for scheduling data transmission on a target carrier, wherein the first indication information is used for indicating a state of at least one secondary carrier, and states of a carrier comprise a dormancy state and a non-dormancy state; and determining, by the terminal device, the state of the at least one secondary carrier according to the first indication information; and determining, by the terminal device, whether the first control information carries the scheduling information, wherein; if the first control information carries the scheduling information for scheduling data transmission on the target carrier, the first indication information is a dedicated field of the first control information; if the first control information does not carry the scheduling information for scheduling data transmission on the target carrier, the first indication information is multiple target bits of the first control information, and the multiple target bits are 15 bits in the first control information, the 15 bits correspondingly indicate states of 15 secondary carriers. receiving, by a terminal device, first control information on a primary carrier; determining, by the terminal device, first indication information carried in the first control information, wherein a format of the first indication information carried in the first control information is according to whether the first control information carries scheduling information for scheduling data transmission on a target carrier, wherein the first indication information is used for indicating a state of at least one secondary carrier, and states of a carrier comprise a dormancy state and a non-dormancy state; and determining, by the terminal device, the state of the at least one secondary carrier according to the first indication information; and determining, by the terminal device, whether the first control information carries the scheduling information, wherein; if the first control information carries the scheduling information for scheduling data transmission on the target carrier, the first indication information is a dedicated field of the first control information; if the first control information does not carry the scheduling information for scheduling data transmission on the target carrier, the first indication information is multiple target bits of the first control information, and the multiple target bits are 15 bits in the first control information, the 15 bits correspondingly indicate states of 15 secondary carriers.
Electronic apparatus comprising a plurality of electric devices and a heating system, applicable in a situation that plural electronic devices are not activated, the heating circuit comprising: a plurality of thermal sensors, for respectively detecting a temperature of each electronic device; a controller, for obtaining the temperatures of all the electronic devices through the thermal sensors, determining whether the temperatures of all the electronic devices reach a threshold value, and generating a plurality of enable signals when the temperatures of at least two electronic devices are lower than the threshold value, wherein waveforms of the enable signals vary alternately; and a plurality of heaters, for respectively receiving one of the enable signals, and heating at least one of the electronic devices according to the received enable signal, wherein each enable signal is a pulse width modulation signal and the waveforms of the enable signals are totally non-overlapped, alternately switched, or partially overlapped. a plurality of thermal sensors, for respectively detecting a temperature of each electronic device; a controller, for obtaining the temperatures of all the electronic devices through the thermal sensors, determining whether the temperatures of all the electronic devices reach a threshold value, and generating a plurality of enable signals when the temperatures of at least two electronic devices are lower than the threshold value, wherein waveforms of the enable signals vary alternately; and a plurality of heaters, for respectively receiving one of the enable signals, and heating at least one of the electronic devices according to the received enable signal, wherein each enable signal is a pulse width modulation signal and the waveforms of the enable signals are totally non-overlapped, alternately switched, or partially overlapped.
Scanning unit for an optical transmitting and receiving device for an optical detection apparatus for a vehicle, having at least one first beam-influencing device for deflecting at least one light beam, which is emitted into the scanning unit, into a first direction (y) and having at least one second beam-influencing device for changing the beam expansion of the at least one light beam in a second direction (z), wherein the at least one first beam-influencing device has at least one electro-optical light-interruption device, wherein the at least one second beam-influencing device is arranged in the beam path of the at least one light beam downstream of the at least one first beam-influencing device, wherein the first direction (y) and the second direction (z) are perpendicular to each other, wherein the first direction (y) extends spatially horizontally and the second direction (z) extends spatially vertically, wherein the at least one second beam-influencing device has at least one plano-concave or a concave-concave cylindrical lens for expanding the at least one light beam in the second direction (z) and in that a vertical field of view is defined by an expansion angle of the cylindrical lens.
A method for the electrochemical detection of viable bacteria in a sample, the method comprising: - affinity enrichment/ separation of bacteria from a liquid sample using ligand-modified paramagnetic or superparamagnetic particles, to form bacteria isolate-(super)paramagnetic complexes; - placing the complexes together with a metabolic redox marker in solution into a container for incubation; - subsequently transferring the solution containing the metabolic redox marker and complexes to an electrochemical cell having a detection electrode with an external magnet close to the detection electrode, such that the complexes form a bacteria isolate (super)paramagnetic agglutinate on or close to the detection electrode; and - using an electrochemical read-out procedure to detect a change in oxidation state of the metabolic redox marker as a direct response to the metabolic activity of viable bacteria. - affinity enrichment/ separation of bacteria from a liquid sample using ligand-modified paramagnetic or superparamagnetic particles, to form bacteria isolate-(super)paramagnetic complexes; - placing the complexes together with a metabolic redox marker in solution into a container for incubation; - subsequently transferring the solution containing the metabolic redox marker and complexes to an electrochemical cell having a detection electrode with an external magnet close to the detection electrode, such that the complexes form a bacteria isolate (super)paramagnetic agglutinate on or close to the detection electrode; and - using an electrochemical read-out procedure to detect a change in oxidation state of the metabolic redox marker as a direct response to the metabolic activity of viable bacteria.
Method for manufacturing a balance spring intended to be fitted to a balance of a timepiece movement, including: - a step of creating a blank from a niobium and titanium alloy containing: - niobium: the remainder to 100wt%, - titanium: between 40 and 60wt%, - traces of elements selected from the group formed of O, H, C, Fe, Ta, N, Ni, Si, Cu, Al, each of said elements being present in an amount comprised between 0 and 1600 ppm by weight, the total amount formed by all of said elements being comprised between 0 and 0.3wt%, - a step of β-quenching said blank with a given diameter, such that the titanium of said alloy is essentially in solid solution form with β-phase niobium, the α-phase titanium content being less than or equal to 5% by volume, - at least one deformation step of said alloy alternated with at least one heat treatment step such that the niobium and titanium alloy obtained has an elastic limit higher than or equal to 600 MPa and a modulus of elasticity lower than or equal to 100 GPa, a winding step to form the balance spring being performed prior to the final heat treatment step, characterized in that, prior to the deformation step, the method includes a step of depositing, on the alloy blank, a surface layer of a ductile material chosen from the group including copper, nickel, cupronickel, cupro manganese, gold, silver, nickel phosphorus NiP and nickel boron NiB, said surface layer of ductile material being retained on the balance spring, the thermoelastic coefficient of the niobium and titanium alloy being adapted accordingly. - a step of creating a blank from a niobium and titanium alloy containing: - niobium: the remainder to 100wt%, - titanium: between 40 and 60wt%, - traces of elements selected from the group formed of O, H, C, Fe, Ta, N, Ni, Si, Cu, Al, each of said elements being present in an amount comprised between 0 and 1600 ppm by weight, the total amount formed by all of said elements being comprised between 0 and 0.3wt%, - niobium: the remainder to 100wt%, - titanium: between 40 and 60wt%, - traces of elements selected from the group formed of O, H, C, Fe, Ta, N, Ni, Si, Cu, Al, each of said elements being present in an amount comprised between 0 and 1600 ppm by weight, the total amount formed by all of said elements being comprised between 0 and 0.3wt%, - a step of β-quenching said blank with a given diameter, such that the titanium of said alloy is essentially in solid solution form with β-phase niobium, the α-phase titanium content being less than or equal to 5% by volume, - at least one deformation step of said alloy alternated with at least one heat treatment step such that the niobium and titanium alloy obtained has an elastic limit higher than or equal to 600 MPa and a modulus of elasticity lower than or equal to 100 GPa, a winding step to form the balance spring being performed prior to the final heat treatment step,
A device for operating LEDs, having: a driver module, wherein the driver module has a switching regulator, a power factor correction circuit, a potential separation and/or an interface for user control; and an LED module controlled by the driver module with at least one LED; wherein the LED module is supplied with a current by the driver module via a first connection and a second connection is present, preferably as a ground connection; wherein the LED module is connected with the driver module via a third connection, which is designed as a data channel, wherein a voltage is applied to the data channel, which is supplied by the driver module; wherein the LED module is designed to send information, wherein the information sent by the LED module contains a piece of information about a parameter of the LED module or the status of the LED module, wherein the LED module is designed to short-circuit the voltage to the data channel in order to send the information; and wherein the voltage to the data channel is used to supply a logic circuit on the LED module; characterized in that the device is configured to switch off the voltage to the data channel, which is supplied by the driver module, at the end of a start-up phase of the driver module.
A braking device for a heavy vehicle, comprising brakes each comprising at least a brake pad or brake shoe exhibiting a support and a friction block acting on a brake disc or a brake drum associated to a wheel of the heavy vehicle, and a temperature sensor mounted on an electrically insulated electric circuit integrated on the support and provided between said friction block and said support, characterized in that it comprises a safety device for preventing overheating of the brakes, said safety device comprising emitting means of an alarm and control means (11, 12) communicating with said at least a sensor and with said emitting means, said control means (11, 12) comprising a memory containing at least a first threshold temperature, and a comparator configured to validate the emission of said alarm if a temperature detected in at least a brake pad or brake shoe is greater than said first threshold temperature and the temperature detected in at least another brake pad or brake shoe is lower than said first threshold temperature, said brake pad or brake shoe comprises at least an auxiliary sensor provided between said friction block and said support and communicating with said control means (11, 12), said at least an auxiliary sensor comprising at least a piezoceramic pressure sensor and/or a piezoceramic shear sensor, said comparator is configured to validate the emission of said alarm only in a presence of a predetermined correlation between the temperature signal and the signal emitted by said at least an auxiliary sensor in a predetermined measurement time interval.
A synthetic porous crystalline material, EMM-26, including, in its as-calcined form, an X-ray diffraction pattern including the d-spacings and relative intensities listed in the Table below. d (Å) Relative intensity 9.8-9.0 60-100 8.75-9.15 5-30 7.00-7.40 10-40 5.60-5.80 3-15 5.25-5.38 8-20 4.14-4.24 5-20 3.88-3.96 25-70 3.55-3.63 20-60 3.30-3.38 10-25 3.02-3.10 2-10
A computer program product tangibly stored on a computer readable hardware storage device, the computer program product for authenticating a constrained electronic device to a server, on a network, the computer program product comprising instructions to cause a processor of a computing device to: - generate a certificate request; - encrypt the certificate request and device identification data of the constrained electronic device by using a pre-shared key, PSK, of the constrained electronic device; - send the encrypted certificate request and the device identification data to an authentication service on the server; - receive, based on said encrypted certificate request, a session key generated by the authentication service and certified certificates that are encrypted with the PSK; - construct a network tunnel between the computing device and the constrained electronic device from the certified certificates; and transfer the encrypted session key, by the network tunnel, to the constrained electronic device for authenticating the constrained electronic device. - generate a certificate request; - encrypt the certificate request and device identification data of the constrained electronic device by using a pre-shared key, PSK, of the constrained electronic device; - send the encrypted certificate request and the device identification data to an authentication service on the server; - receive, based on said encrypted certificate request, a session key generated by the authentication service and certified certificates that are encrypted with the PSK; - construct a network tunnel between the computing device and the constrained electronic device from the certified certificates; and transfer the encrypted session key, by the network tunnel, to the constrained electronic device for authenticating the constrained electronic device.
A method of handling process water in a household appliance for washing and rinsing goods, the household appliance comprises a wash tub for performing wash program cycles and a tank for storing process water to be re-used in a following program cycle, the method comprising the steps of: - determining the type of detergent used in the household appliance with a sensor unit, - measuring the amount of detergent in the process water with the sensor unit, - comparing at least one sensor unit output value with a predetermined threshold value related to the quality of the process water, and - storing at least a part of the process water from a rinse cycle in the tank when the sensor unit output value complies with the predetermined threshold value related to the quality of the process water. - determining the type of detergent used in the household appliance with a sensor unit, - measuring the amount of detergent in the process water with the sensor unit, - comparing at least one sensor unit output value with a predetermined threshold value related to the quality of the process water, and - storing at least a part of the process water from a rinse cycle in the tank when the sensor unit output value complies with the predetermined threshold value related to the quality of the process water.