mhurhangee/ep-ind-claims huggingface dataset:
TDD repeater for transmitting communication signals in a wireless network, - having a master unit for communication with a base station of the wireless network, - having at least one remote unit for communication with a network terminal, and - having a waveguide, connecting the remote unit to the master unit, for transmitting the communication signals in an uplink direction from the remote unit to the master unit and in a downlink direction from the master unit to the remote unit, - wherein both the master unit and the remote unit comprise a switch (19, 20) for changing over between the signal transmission in the uplink direction and the signal transmission in the downlink direction, and - wherein the master unit comprises a synchronization unit that is configured to ascertain a clocking from the communication signal supplied to the master unit and to deliver a control signal corresponding to this clocking to the switches (19, 20), and wherein the synchronization unit, during operation, delivers the control signal to the switch arranged in the remote unit. - having a master unit for communication with a base station of the wireless network, - having at least one remote unit for communication with a network terminal, and - having a waveguide, connecting the remote unit to the master unit, for transmitting the communication signals in an uplink direction from the remote unit to the master unit and in a downlink direction from the master unit to the remote unit, - wherein both the master unit and the remote unit comprise a switch (19, 20) for changing over between the signal transmission in the uplink direction and the signal transmission in the downlink direction, and - wherein the master unit comprises a synchronization unit that is configured to ascertain a clocking from the communication signal supplied to the master unit and to deliver a control signal corresponding to this clocking to the switches (19, 20), and wherein the synchronization unit, during operation, delivers the control signal to the switch arranged in the remote unit.
Orthopaedic device with a shell mechanism which can be brought into a closed position, in which it engages at least partially around a body part arranged in the shell mechanism, and into an open position, in which the body part can be brought into the shell mechanism, wherein the shell mechanism can be brought from the open position to the closed position by means of the body part being introduced into the shell mechanism, wherein the device has at least one actuation element which is arranged and designed in such a way that it is actuated when the body part is introduced into the shell mechanism, and it brings the shell mechanism from the open position to the closed position, wherein the actuation element has a tensile force transmission element, characterized in that the tensile force transmission element has a length that is shorter than the inner circumference of the shell mechanism in the closed position. can be brought into a closed position, in which it engages at least partially around a body part arranged in the shell mechanism, and into an open position, in which the body part can be brought into the shell mechanism,
A process for the preparation of dimethyl fumarate comprising: (i). a one pot ring opening reaction of maleic anhydride using methanol to obtain monomethyl maleate, followed by Lewis acid catalyzed isomerization of the monomethyl maleate to obtain monomethyl fumarate; (ii). conversion of monomethyl fumarate into dimethyl fumarate by an acid chloride mediated esterification. (i). a one pot ring opening reaction of maleic anhydride using methanol to obtain monomethyl maleate, followed by Lewis acid catalyzed isomerization of the monomethyl maleate to obtain monomethyl fumarate; (ii). conversion of monomethyl fumarate into dimethyl fumarate by an acid chloride mediated esterification.
A power providing device arranged for providing power to multiple power receiving devices, comprising: a power supply unit configured to supply power to a power receiving device at a first voltage and at a second voltage, the first voltage being higher than the second voltage, the first voltage corresponding to a first mode of the power receiving device and the second voltage corresponding to a second mode of the power receiving device, wherein the power providing device is configured such that the second voltage is supplied after the power supply unit provided power to the power receiving device at the first voltage.
A method for decoding an intra prediction mode, comprising: restoring an intra prediction mode group indicator and a prediction mode index of a current prediction unit; generating a first intra prediction mode group using available intra prediction modes of a left prediction unit and an above prediction unit of the current prediction unit, wherein the number of intra prediction modes belonging to the first intra prediction mode group is fixed to three; determining an intra prediction mode which is included in the first intra prediction mode group and indicated by the intra prediction mode index as the intra prediction mode of the current prediction unit when the intra prediction mode group indicator indicates the first intra prediction mode group; and determining an intra prediction mode which is included in a second intra prediction mode group and indicated by the intra prediction mode index as the intra prediction mode of the current prediction unit when the intra prediction mode group indicator indicates the second intra prediction mode group, wherein, when only one intra prediction mode out of the left intra prediction mode and the above intra prediction mode is available, the first intra prediction mode group is composed of the available intra prediction mode and two additional intra prediction modes that are added to the first intra prediction mode group, wherein the two additional intra prediction modes are determined according to the available intra prediction mode, and wherein, when the available intra prediction mode is a non-directional intra prediction mode, the two additional intra prediction modes are another non-directional intra prediction mode and a vertical mode. restoring an intra prediction mode group indicator and a prediction mode index of a current prediction unit; generating a first intra prediction mode group using available intra prediction modes of a left prediction unit and an above prediction unit of the current prediction unit, wherein the number of intra prediction modes belonging to the first intra prediction mode group is fixed to three; determining an intra prediction mode which is included in the first intra prediction mode group and indicated by the intra prediction mode index as the intra prediction mode of the current prediction unit when the intra prediction mode group indicator indicates the first intra prediction mode group; and determining an intra prediction mode which is included in a second intra prediction mode group and indicated by the intra prediction mode index as the intra prediction mode of the current prediction unit when the intra prediction mode group indicator indicates the second intra prediction mode group,
An ammonia-engine system comprising: - an ammonia tank, - an ammonia engine driven by ammonia combustion using ammonia supplied from the ammonia tank as fuel, - an ammonia cracking device including an ammonia cracking catylyst that cracks ammonia to produce hydrogen, - means for supplying ammonia from the ammonia tank to the ammonia engine, - means for supplying ammonia from the ammonia tank to the ammonia cracking device, - means for supplying the hydrogen containing ammonia cracked gas produced in the ammonia cracking device to the ammonia engine as combustion improver, characterized in that it comprises: - an ammonia oxidizing device provided between the ammonia engine and the ammonia cracking device - means for supplying an exhaust gas containing ammonia from the ammonia engine to the ammonia oxidizing device for oxidizing ammonia in the exhaust gas, - means for supplying the exhaust gas from the ammonia oxidizing engine to the exhaust gas introduction side of the ammonia cracking device to exchange heat, within the ammonia cracking device, with the ammonia supplied from the ammonia tank and with the ammonia cracking catalyst, and to increase their temperatures for ammonia to crack and produce hydrogen. - an ammonia tank, - an ammonia engine driven by ammonia combustion using ammonia supplied from the ammonia tank as fuel, - an ammonia cracking device including an ammonia cracking catylyst that cracks ammonia to produce hydrogen, - means for supplying ammonia from the ammonia tank to the ammonia engine, - means for supplying ammonia from the ammonia tank to the ammonia cracking device, - means for supplying the hydrogen containing ammonia cracked gas produced in the ammonia cracking device to the ammonia engine as combustion improver, - an ammonia oxidizing device provided between the ammonia engine and the ammonia cracking device - means for supplying an exhaust gas containing ammonia from the ammonia engine to the ammonia oxidizing device for oxidizing ammonia in the exhaust gas, - means for supplying the exhaust gas from the ammonia oxidizing engine to the exhaust gas introduction side of the ammonia cracking device to exchange heat, within the ammonia cracking device, with the ammonia supplied from the ammonia tank and with the ammonia cracking catalyst, and to increase their temperatures for ammonia to crack and produce hydrogen.
A process for production of fatty acids, sn-regio mono-acylglycerol, sn-regio diacyl-glycerols, and glycerol, wherein said process comprises preparing a homogenous mixture of fat, polar organic solvent, and water, and subjecting said homogenous mixture to an enzymatic hydrolysis with lipase to obtain a hydrolysate, wherein the hydrolysate comprises fatty acids, sn-regio mono-acylglycerol, sn-regio diacyl-glycerols, and glycerol and wherein said polar organic solvent is selected from the group consisting of t-butanol, iso-amyl alcohol, di-acetone alcohol, ethanol, propanol, and t-pentanol, and mixtures thereof, further comprising subjecting said hydrolysate to an ion exchange resin followed by another enzymatic hydrolysis with lipase to obtain a mixture, wherein the mixture comprises fatty acids and glycerol, and wherein said mixture has less than 5% mono-acylglycerol.
A method of controlling a computer, comprising: presenting a display; detecting an action of a user, wherein the action is depressing a button or touching a touch-sensitive device; characterized by delaying for a predetermined amount of time; and presenting a visual indicator on the display at a gaze target in response to continued detection of the action after a predetermined period of time, wherein the gaze target is a point, where the user's gaze is directed. presenting a display; detecting an action of a user, wherein the action is depressing a button or touching a touch-sensitive device; characterized by delaying for a predetermined amount of time; and presenting a visual indicator on the display at a gaze target in response to continued detection of the action after a predetermined period of time, wherein the gaze target is a point, where the user's gaze is directed.
A method for detecting a high temperature condition of a gas turbine engine, the method comprising: obtaining a fuel flow (Wf) to a combustor of the engine and a compressor outlet pressure of the engine; and determining a ratio of the fuel flow (Wf) to the compressor outlet pressure, characterised by: comparing the ratio to a threshold; and detecting a high temperature condition of the engine when the ratio exceeds the threshold. obtaining a fuel flow (Wf) to a combustor of the engine and a compressor outlet pressure of the engine; and determining a ratio of the fuel flow (Wf) to the compressor outlet pressure, characterised by: comparing the ratio to a threshold; and detecting a high temperature condition of the engine when the ratio exceeds the threshold. comparing the ratio to a threshold; and detecting a high temperature condition of the engine when the ratio exceeds the threshold.
A power tool arrangement (20,820), comprising: a frame including an outlet; a sliding carriage (34,44,644,744) supported by the frame; a power tool coupled to the sliding carriage and including a movable working element (32, 232,632,732) configured to engage a workpiece wherein the sliding carriage guides the working element along a working direction between a non-working position and a working position; and a hose (52, 652, 752) including first and second opposite ends and a biasing device (50,62,662,762) configured to bias the hose into one of a longitudinally compressed position and a longitudinally extended position, the first end (26, 626, 726) being coupled to the outlet, the second end (48, 648, 758) being coupled to the working element such that the second end follows the movement of the working clement and the hose thereby moves between the compressed position and a longitudinally extended position wherein the biasing device is configured to exert a biasing force in response to an actuating force exerted on the working element to move the working element along the working direction from one of the working position and the non-working position to the other of the working position and the non-working position.
Fairing for a structural element of a rotary wing aircraft having a substantially longitudinal direction, said fairing comprising a rear portion substantially orthogonal to the longitudinal direction, said rear portion extending along a span of the fairing between two spaced-apart trailing edges (3,4) and thus having a determined width, said rear portion closing at least partly the internal volume defined by the fairing and generating an aerodynamic drag in forward flight; the rear portion having, at least at the trailing edges (3,4), at least one perturbed shape on the paths of the airflow, characterised in that the rear portion has at least one perturbed shape on the paths of the airflow which is transversely discontinuous along its span between said spaced-apart trailing edges (3,4) and that the discontinuous perturbed shape extends from one trailing edge (3, 4) to at least an intermediate zone of the rear portion, said intermediate zone being located between the two trailing edges (3,4).
An electronic circuit, comprising: a reset input for receiving an input reset signal; a clock input for receiving a clock signal; a reset output for providing an output reset signal; a power-on reset input; a synchronous reset signal path (18, 20, 22, 24, 26) comprising a synchronization unit (20, 24), arranged to receive said input reset signal and provide a synchronous output reset signal, which is synchronized with said clock signal, to said reset output when said clock signal is available; an asynchronous reset signal path (28, 30, 32, 42) arranged to receive said input reset signal and provide an asynchronous output reset signal to said reset output when a current clock availability information in a clock monitoring signal indicates that said clock signal is not available; and a selection circuit, which is provided to connect either said asynchronous reset signal path or said synchronous reset signal path to said reset output, wherein said asynchronous reset signal path further comprises a logic OR gate, which is arranged to accept said clock monitoring signal and said input reset signal and to provide said asynchronous output reset signal, wherein said selection circuit is a logic AND gate, which is arranged to accept said synchronous and asynchronous output reset signals, wherein said power-on reset input is connected to reset inputs of said synchronization unit allowing for initializing said synchronization unit into a predefined state. a reset input for receiving an input reset signal; a clock input for receiving a clock signal; a reset output for providing an output reset signal; a power-on reset input; a synchronous reset signal path (18, 20, 22, 24, 26) comprising a synchronization unit (20, 24), arranged to receive said input reset signal and provide a synchronous output reset signal, which is synchronized with said clock signal, to said reset output when said clock signal is available; an asynchronous reset signal path (28, 30, 32, 42) arranged to receive said input reset signal and provide an asynchronous output reset signal to said reset output when a current clock availability information in a clock monitoring signal indicates that said clock signal is not available; and a selection circuit, which is provided to connect either said asynchronous reset signal path or said synchronous reset signal path to said reset output, wherein said asynchronous reset signal path further comprises a logic OR gate, which is arranged to accept said clock monitoring signal and said input reset signal and to provide said asynchronous output reset signal, wherein said selection circuit is a logic AND gate, which is arranged to accept said synchronous and asynchronous output reset signals, wherein said power-on reset input is connected to reset inputs of said synchronization unit allowing for initializing said synchronization unit into a predefined state.
A method comprising: determining a first way of a first instruction stored in a multi-way cache; storing the first way in a list of ways, each entry in the list of ways identifying a way of the multi-way cache; determining a second way of a second instruction stored in the multi-way cache; storing the second way in the list of ways; wherein the ways are stored in an order associated with a corresponding plurality of processor executable instructions stored within the multi-way cache; detecting an end of loop packet; and accessing at least one retrieved way from the list of ways after detecting the end of loop packet; the method characterized by: reading a part of a cache line, and storing a sameline bit, wherein the sameline bit is configured to identify that a particular instruction is located at a same cache line of an instruction array as an immediately prior instruction, such that based on the sameline bit, no entries in a tag array are evaluated when the same cache line is accessed. determining a first way of a first instruction stored in a multi-way cache; storing the first way in a list of ways, each entry in the list of ways identifying a way of the multi-way cache; determining a second way of a second instruction stored in the multi-way cache; storing the second way in the list of ways; wherein the ways are stored in an order associated with a corresponding plurality of processor executable instructions stored within the multi-way cache; detecting an end of loop packet; and accessing at least one retrieved way from the list of ways after detecting the end of loop packet; the method characterized by: reading a part of a cache line, and storing a sameline bit, wherein the sameline bit is configured to identify that a particular instruction is located at a same cache line of an instruction array as an immediately prior instruction, such that based on the sameline bit, no entries in a tag array are evaluated when the same cache line is accessed.
A method for controlling the cut register of a rotary printing press, wherein: multiple printed webs (BV, BO, BU, BE) are joined and then cut by a common knife cylinder ( K 8), certain image information or measurement marks of the multiple printed webs (BV, BO, BU, BE) is detected by means of sensors (SE; SO; SL; SR) and fed to a control device, in at least one position from a position in front of and a position on the common knife cylinder ( K 8) image information or measurements marks that are suitable for the deviation of the position of the print image relative to its set point position based on the location and time of the cut, i.e. for the cut register error ( Y 18), of at least one of the printed webs (BV, BO, BU, BE) is detected, evaluated and converted into an actual value with the help of at least one sensor, (SE; SO; SL; SR) which serves for controlling the cut register error ( Y 18) of at least one web (BV, BO, BU, BE), and for correcting the cut register error ( Y 18) of the at least one web (BV, BO, BU, BE) at least one of the speed of at least one clamping point (K 0 to K 3, K i, K k, K 6) located in front of the knife cylinder ( K 8) and the position of the knife cylinder ( K 8) is changed so that the cut register error ( Y 18) of the at least one web (BV, BO, BU, BE) is corrected to a set point value ( Y 18 w) according to the actual value, characterized in that the actual value is used for controlling the cut register error ( Y 18) of all of the multiple webs (BV, BO, BU, BE). multiple printed webs (BV, BO, BU, BE) are joined and then cut by a common knife cylinder ( K 8), certain image information or measurement marks of the multiple printed webs (BV, BO, BU, BE) is detected by means of sensors (SE; SO; SL; SR) and fed to a control device, in at least one position from a position in front of and a position on the common knife cylinder ( K 8) image information or measurements marks that are suitable for the deviation of the position of the print image relative to its set point position based on the location and time of the cut, i.e. for the cut register error ( Y 18), of at least one of the printed webs (BV, BO, BU, BE) is detected, evaluated and converted into an actual value with the help of at least one sensor, (SE; SO; SL; SR) which serves for controlling the cut register error ( Y 18) of at least one web (BV, BO, BU, BE), and for correcting the cut register error ( Y 18) of the at least one web (BV, BO, BU, BE) at least one of the speed of at least one clamping point (K 0 to K 3, K i, K k, K 6) located in front of the knife cylinder ( K 8) and the position of the knife cylinder ( K 8) is changed so that the cut register error ( Y 18) of the at least one web (BV, BO, BU, BE) is corrected to a set point value ( Y 18 w) according to the actual value, characterized in that the actual value is used for controlling the cut register error ( Y 18) of all of the multiple webs (BV, BO, BU, BE).
An amino acid sequence having at least 80.0% identity to the contiguous amino acid sequence as set forth in SEQ ID NO: 29, wherein the isolated amino acid sequence activates a Toll-like Receptor 5.
An image sensor including an array of read circuits in nonorganic technology and photodiodes in organic materials, characterized in that each photodiode is separated from the neighboring photodiodes by spacers made from electrically insulating and transparent material delimiting the active zones of the photodiodes.