mhurhangee/ep-ind-claims huggingface dataset:
A sensor system for being incorporated with a shaft configured to rotate about a center axis of the shaft, the sensor system comprising: a rotor antenna configured to be disposed on an outer surface of the shaft; a radio frequency sensor configured to be disposed on the outer surface of the shaft and conductively connected to the rotor antenna, the RF sensor configured to generate measurement signals as the shaft rotates; and a stator antenna configured to be mounted separate from the shaft such that the rotor antenna and the RF sensor rotate with the shaft relative to the stator antenna, the stator antenna configured to be positioned radially outward from the rotor antenna and wirelessly connected to the rotor antenna across an air gap to receive the measurement signals from the rotor antenna, characterised in that the sensor system comprises one or more frequency selective structures configured to be disposed on the outer surface of the shaft and configured to dissipate electromagnetic current that is conducted along the shaft to alleviate interference of the measurement signals. a rotor antenna configured to be disposed on an outer surface of the shaft; a radio frequency sensor configured to be disposed on the outer surface of the shaft and conductively connected to the rotor antenna, the RF sensor configured to generate measurement signals as the shaft rotates; and a stator antenna configured to be mounted separate from the shaft such that the rotor antenna and the RF sensor rotate with the shaft relative to the stator antenna, the stator antenna configured to be positioned radially outward from the rotor antenna and wirelessly connected to the rotor antenna across an air gap to receive the measurement signals from the rotor antenna, characterised in that the sensor system comprises one or more frequency selective structures configured to be disposed on the outer surface of the shaft and configured to dissipate electromagnetic current that is conducted along the shaft to alleviate interference of the measurement signals.
A power tool comprising: a tool body wherein the power tool performs a predetermined operation by driving a tool bit removably attached to the tool body via a driving source, a grip coupled to the tool body to be held by a user, and a self-synchronous mechanism that reduces whirling vibration caused in the tool body and / or the grip when the tool bit is driven, characterized in that the self-synchronous mechanism is defined by a phase variable type, having a rotating body as a vibrator which is rotationally driven by a driving source differently provided from the driving source for the tool bit, wherein the self-synchronous mechanism is disposed in the tool body and/or the grip where whirling vibration is caused and is arranged such that a phase of vibration of the rotating body is automatically tuned to a phase of said whirling vibration to reduce the whirling vibration. a tool body wherein the power tool performs a predetermined operation by driving a tool bit removably attached to the tool body via a driving source, a grip coupled to the tool body to be held by a user, and a self-synchronous mechanism that reduces whirling vibration caused in the tool body and / or the grip when the tool bit is driven, characterized in that the self-synchronous mechanism is defined by a phase variable type, having a rotating body as a vibrator which is rotationally driven by a driving source differently provided from the driving source for the tool bit, wherein the self-synchronous mechanism is disposed in the tool body and/or the grip where whirling vibration is caused and is arranged such that a phase of vibration of the rotating body is automatically tuned to a phase of said whirling vibration to reduce the whirling vibration.
Process of oligomerization of alkenes for producing hydrocarbons, characterized in that it comprises at least: a. introducing a catalyst containing at least the zeolitic material ITQ-39 in the reactor; b. feeding the reactor with a stream comprising at least one olefinic compound; c. allowing the catalyst containing at least the ITQ-39 material and the organic compound to remain in contact the time necessary for the reaction to take place. a. introducing a catalyst containing at least the zeolitic material ITQ-39 in the reactor; b. feeding the reactor with a stream comprising at least one olefinic compound; c. allowing the catalyst containing at least the ITQ-39 material and the organic compound to remain in contact the time necessary for the reaction to take place.
An optical composition, comprising: a polymeric matrix material; a population of quantum dots dispersed within the polymeric matrix material; and a population of glass fiber segments dispersed within the polymeric matrix material, the glass fiber segments effecting reduced aggregation between the quantum dots. a polymeric matrix material; a population of quantum dots dispersed within the polymeric matrix material; and a population of glass fiber segments dispersed within the polymeric matrix material, the glass fiber segments effecting reduced aggregation between the quantum dots.
A welding system (100, 1200, 1500, 1600), comprising: a welding power source (110, 1210) comprising a controller having a first receiver, first transmitter; a wire feeder (120, 1270, 1570) comprising a communication circuit having a second receiver, second transmitter and a voltage sense circuit; and at least one welding power cable (130, 1220, 1520) coupled to each of said welding power source and said wire feeder (120, 1270, 1570) which carries a welding power from said welding power source (110, 1210) to said wire feeder (120, 1270, 1570) during a welding operation; characterized in that a current sense circuit is included in said welding power source (110, 120); that said welding power source (110, 1210) communicates with said wire feeder (120, 1270, 1570) over said at least one welding power cable (130, 1220, 1520) by generating a voltage pulse signal which is detected by said voltage sense circuit in said wire feeder (120, 1270, 1570); and that said voltage pulse signal comprises a plurality of voltage pulses generated by said welding power source (110, 1210). a welding power source (110, 1210) comprising a controller having a first receiver, first transmitter; a wire feeder (120, 1270, 1570) comprising a communication circuit having a second receiver, second transmitter and a voltage sense circuit; and at least one welding power cable (130, 1220, 1520) coupled to each of said welding power source and said wire feeder (120, 1270, 1570) which carries a welding power from said welding power source (110, 1210) to said wire feeder (120, 1270, 1570) during a welding operation; characterized in that a current sense circuit is included in said welding power source (110, 120); that said welding power source (110, 1210) communicates with said wire feeder (120, 1270, 1570) over said at least one welding power cable (130, 1220, 1520) by generating a voltage pulse signal which is detected by said voltage sense circuit in said wire feeder (120, 1270, 1570); and that said voltage pulse signal comprises a plurality of voltage pulses generated by said welding power source (110, 1210).
Program-controlled unit comprising a memory for storing data, and comprising a memory protection apparatus set up for protecting the memory against read and write accesses by persons not authorized for such access, wherein the program-controlled unit contains configuration blocks which can be written to by a plurality of users of the program-controlled unit and in which data relating to the read protection and the write protection can be stored, wherein the program-controlled unit is set up in such a way that a plurality of users of the program-controlled unit can determine independently of one another whether and for what areas of the memory a read protection and/or a write protection are/is intended to be effective, wherein a dedicated configuration block is provided for each of the plurality of users, to which configuration block the respective user can write said user's own settings, and the configuration blocks cannot be read from by the users of the program-controlled unit, wherein the configuration blocks are stored in the memory to be protected, wherein, in order to store data relating to the write protection, the dedicated configuration block contains write protection setting bits, wherein each of the write protection setting bits is assigned to an area of the memory, wherein the write protection setting bits specify for what areas of the memory a write protection is or is not intended to be effective, and/or wherein the dedicated configuration block contains read protection setting bits, wherein each of the read protection setting bits is assigned to an area of the memory, wherein the read protection setting bits specify for what areas of the memory a read protection is or is not intended to be effective, or wherein, in order to store data relating to the write protection, the dedicated configuration block contains write protection setting bits, wherein each of the write protection setting bits is assigned to an area of the memory, wherein the write protection setting bits specify for what areas of the memory a write protection is or is not intended to be effective, and wherein, in order to store data relating to the read protection, a configuration block of the plurality of configuration blocks contains a single read protection setting bit, wherein the value of the single read protection setting bit sets whether or not a read protection is intended to be effective for the entire memory, wherein the fact of whether and, if appropriate, what areas of the memory are protected against read accesses and/or write accesses in the case of activated read and/or write protection depends on the content of all the configuration blocks.
A computer-implemented method of determining the ventilatory threshold - VT - of a subject during an exercise session, wherein data relating to physiological parameters of said subject are acquired and stored in function of time during said exercise session, said data including at least data indicative of the respiration and of the heart beat rate; wherein said method includes a VT determination routine, which is carried out at periodic time intervals during said exercise session and comprises the steps of: a) computing a first value of ventilatory threshold according to a first approach based on data relating to at least one of the physiological parameters acquired for said exercise session; b) computing a second value of ventilatory threshold according to a different, second approach based on data relating to at least one of the physiological parameters acquired for said exercise session; c) determining a confidence index for each of said first and second values of ventilatory threshold, wherein said confidence index reflects at least one of the detectability of the ventilatory threshold and the matching between the value of ventilatory threshold according to one approach and that according to the other approach; wherein the confidence index for said first approach and/or second approach further depends at least on the matching with earlier calculated values of ventilatory threshold according to the same approach for the same exercise session; d) selecting the most reliable VT on the basis of its respective confidence index. a) computing a first value of ventilatory threshold according to a first approach based on data relating to at least one of the physiological parameters acquired for said exercise session; b) computing a second value of ventilatory threshold according to a different, second approach based on data relating to at least one of the physiological parameters acquired for said exercise session; c) determining a confidence index for each of said first and second values of ventilatory threshold, wherein said confidence index reflects at least one of the detectability of the ventilatory threshold and the matching between the value of ventilatory threshold according to one approach and that according to the other approach; wherein the confidence index for said first approach and/or second approach further depends at least on the matching with earlier calculated values of ventilatory threshold according to the same approach for the same exercise session; d) selecting the most reliable VT on the basis of its respective confidence index.
An apparatus for controlling a plurality of loudspeakers located in various rooms of a dwelling, where each of the various rooms comprises an electronic device with at least one loudspeaker and with a wireless transceiver, wherein the electronic devices are wirelessly connected to the apparatus for exchange of digital wireless signals, the signals comprising digital command data for start and stop of playing of the loudspeakers, as well as control data for audio levels and status data for connectivity and play status; the apparatus comprising a terminal with a panel that comprises a first user interface and a second user interface arranged side by side; wherein the first user interface comprises an interactive touch screen display with a surrounding border that confines the touch screen display for interactivity by contact with a user's first finger within the border; the touch screen display comprising first indicators, wherein each of the first indicators indicates a specific room that contains one of the electronic devices that are wirelessly connected to the apparatus; wherein the second user interface is provided outside the border and comprises an adjustment element configured for adjusting the audio level in such a specific room in response to a correspondingly pointer moving action on the second user interface by a second finger only when in combination with a simultaneous pointer holding action by the first finger on a corresponding first indicator on the first user interface.
A light deflector comprising: a movable unit having a reflecting surface to reflect light; a support (13 and 15) to support the movable unit; and a bar unit (111a, 111b, 112a, and 112b) connecting the movable unit with the support (13 and 15), the bar unit (111a, 111b, 112a, and 112b) including: a pair of elastic support members (111a and 11 1b) to movably support the movable unit; and a pair of drive bars (112a and 112b) each including a silicon active layer, a piezoelectric section, a first protection layer, and a second protection layer in the recited order, wherein the first protection layer is an oxide silicon layer, and wherein the second protection layer is a silicon nitride layer, wherein in a process for etching, only the silicon nitride layer is etched to be partly removed and the oxide silicon layer of the first protection layer remains on the silicon active layer, the pair of elastic support members (111a and 11 1b) each including the first protection layer, but not the second protection layer, one end of the respective drive bar (112a, 112b) being connected with the respective end of the elastic support member (111a, 111b). a movable unit having a reflecting surface to reflect light; a support (13 and 15) to support the movable unit; and a bar unit (111a, 111b, 112a, and 112b) connecting the movable unit with the support (13 and 15), the bar unit (111a, 111b, 112a, and 112b) including: a pair of elastic support members (111a and 11 1b) to movably support the movable unit; and a pair of drive bars (112a and 112b) each including a silicon active layer, a piezoelectric section, a first protection layer, and a second protection layer in the recited order, a pair of elastic support members (111a and 11 1b) to movably support the movable unit; and a pair of drive bars (112a and 112b) each including a silicon active layer, a piezoelectric section, a first protection layer, and a second protection layer in the recited order, wherein the first protection layer is an oxide silicon layer, and wherein the second protection layer is a silicon nitride layer, wherein in a process for etching, only the silicon nitride layer is etched to be partly removed and the oxide silicon layer of the first protection layer remains on the silicon active layer, the pair of elastic support members (111a and 11 1b) each including the first protection layer, but not the second protection layer, one end of the respective drive bar (112a, 112b) being connected with the respective end of the elastic support member (111a, 111b).
Road finishing machine comprising at least one screed, a machine control, and a ventilation system including at least one fan that can be at least switched on and off, characterized in that the fan or the ventilation system can be switched on or off automatically and exclusively depending on demand via the machine control or a ventilation system control, and that the machine control or the ventilation system control comprises a ventilation system demand decision section by means of which information of a preselection device or setting device provided on board of the road finishing machine for a material mixture type and/or an operating mode and/or machine function can be processed to make decisions which are to be implemented or are implemented directly, and that the machine control comprises a setting section and/or display section at least for material mixture types and/or material mixture temperatures and/or laying temperatures and/or compaction settings and/or screed heating temperatures and/or incorporating temperatures and/or settings for a compaction and/or screed heating temperatures and/or operation modes and/or machine functions of the road finishing machine.
A protease comprising an amino acid sequence which is at least 91.5% identical to the amino acid sequence specified in SEQ ID NO. 1 over the entire length thereof and which, in the listing according to SEQ ID NO. 1, has the amino acid substitution 121V in combination with at least one further amino acid substitution, wherein the further amino acid substitution is selected from among Q12L, M122L, N177V, A222S, V2281 and T247N, wherein the efficiency of said protease in washing and cleaning agents is improved in comparison with the equivalent protease which does not have said amino acid substitutions.
A method for preparing a protein array having a plurality of proteins, the method comprising: (a) providing a plurality of nucleic acids each having a predefined sequence, wherein the plurality of nucleic acids is immobilized on discrete features of a solid surface of an array; and (b) expressing in vitro a plurality of proteins from the plurality of nucleic acids at the discrete features on the solid surface of the array, wherein each of the plurality of proteins is expressed in a reaction microvolume of between 0.5 picoliter and 100 nanoliter; wherein the plurality of nucleic acids is provided by a method comprising: providing a solid surface having a plurality of distinct features, each feature comprising a plurality of immobilized anchor oligonucleotides; and generating at least one plurality of nucleic acids having a predefined sequence onto the plurality of anchor oligonucleotides by assembling a plurality of construction oligonucleotides, wherein the construction oligonucleotides comprise partially overlapping sequences that define the sequence of the at least one nucleic acid and the at least one nucleic acid is generated under (i) ligation conditions, (ii) chain extension conditions, or (iii) chain extension and ligation conditions; and wherein the plurality of proteins is expressed in vitro by providing a microvolume onto at least one feature of the support; and expressing in vitro in the microvolume the plurality of proteins from the plurality of nucleic acids. (a) providing a plurality of nucleic acids each having a predefined sequence, wherein the plurality of nucleic acids is immobilized on discrete features of a solid surface of an array; and (b) expressing in vitro a plurality of proteins from the plurality of nucleic acids at the discrete features on the solid surface of the array, providing a solid surface having a plurality of distinct features, each feature comprising a plurality of immobilized anchor oligonucleotides; and generating at least one plurality of nucleic acids having a predefined sequence onto the plurality of anchor oligonucleotides by assembling a plurality of construction oligonucleotides, wherein the construction oligonucleotides comprise partially overlapping sequences that define the sequence of the at least one nucleic acid and the at least one nucleic acid is generated under (i) ligation conditions, (ii) chain extension conditions, or (iii) chain extension and ligation conditions; and providing a microvolume onto at least one feature of the support; and expressing in vitro in the microvolume the plurality of proteins from the plurality of nucleic acids.
Method for generating nitric oxide, in particular for therapeutic applications, which comprises the steps of: providing a process gas inside a reaction chamber 3, wherein the process gas comprises nitrogen and oxygen, heating the process gas to a temperature which is sufficiently high to enable a reaction of oxygen and nitrogen to form nitric oxide, thereby forming a gas which comprises nitric oxide, and extracting the nitric oxide comprising gas from the reaction chamber 3, wherein oxygen is present in the process gas in the reaction chamber in an amount of ≤ 5vol- %. providing a process gas inside a reaction chamber 3, wherein the process gas comprises nitrogen and oxygen, heating the process gas to a temperature which is sufficiently high to enable a reaction of oxygen and nitrogen to form nitric oxide, thereby forming a gas which comprises nitric oxide, and extracting the nitric oxide comprising gas from the reaction chamber 3, wherein oxygen is present in the process gas in the reaction chamber in an amount of ≤ 5vol- %.
A device for dosing a viscous medium having a container for receiving the viscous medium, characterized in that an element made of one-piece is provided which integrates at least a part of the container and a conveying element, formed as an outer part or an inner part of an eccentric screw pump, for a dosed conveyance of the viscous medium from the container.
Ambulatory infusion device, including: (a) an energy storage for storing electrical energy required for powering the device, the energy storage serving as primary power source of the ambulatory device and being successively depleted during application, (b) a dosing unit with an electrically powered actuator and an electronic controller, the controller controlling operation of the actuator, (c) a testing unit for testing the energy storage, the testing unit being designed to repeatedly carry out a test during operation of the device, the test including determining a control variable, the control variable being indicative of a capability of the energy storage for further powering the device, characterized in that the testing unit is configured to vary the testing of the energy storage in dependence of the control variable, wherein the control variable is a terminal voltage of the energy storage, an internal resistance of the energy storage, or a variable derived from the terminal voltage or the internal resistance, and the testing unit is designed to vary the testing by reducing a testing interval for carrying out consecutive tests as a change of the control variable indicates a decreasing capability of the energy storage for further powering the device.. (a) an energy storage for storing electrical energy required for powering the device, the energy storage serving as primary power source of the ambulatory device and being successively depleted during application, (b) a dosing unit with an electrically powered actuator and an electronic controller, the controller controlling operation of the actuator, (c) a testing unit for testing the energy storage, the testing unit being designed to repeatedly carry out a test during operation of the device, the test including determining a control variable, the control variable being indicative of a capability of the energy storage for further powering the device,