mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a heating system of a machine for producing or treating a fibrous web, in particular a paper or cardboard web, the heating system comprising at least a first and a second heating group, and the said heating groups comprising in each case at least two drying cylinders which are heated with steam, the first heating group being that one which comprises the first drying cylinders as viewed in the web running direction, and there being a separator which separates the residual steam from the condensate after it has flowed through the drying cylinders of the first heating group, there being a thermocompressor which sucks the residual steam out of the separator downstream of the first heating group, compresses it using motive steam to the pressure level of the heating steam which prevails upstream of the first heating group, and feeds it to the first heating group again as heating steam, the main heating steam of the heating system which is fed to the said heating system being used as motive steam, characterized in that the steam which is fed from the thermocompressor to the first heating group is at least 20%, preferably at least 30% of the overall heating steam which is fed to the first heating group.
A shelf system provided with at least one shelf which is arranged for accommodating articles such as books, packages, for instance with medicines, and/or videotapes, wherein the system is further provided with at least one label detection system provided with an antenna system provided with coils for reading out identification labels which are operatively connected with the articles, wherein the antenna system is provided with at least one transmitting and receiving antenna for transmitting an electromagnetic interrogation field and receiving responses from the identification labels present in the interrogation field, characterised in that the at least one transmitting and receiving antenna is provided with a plurality of coils, which are electrically conductively interconnected by means of connecting wires, which coils are located on or above the shelf and which are provided at least substantially in a plurality of surfaces, wherein each surface has a normal which is at least virtually directed in a longitudinal direction of the shelf and wherein the surfaces are provided so as to be offset relative to one another in the longitudinal direction of the shelf.
A monolithically integrated laser comprising: an integrated dual optical emission port laser having a first optical emission port and a second optical emission port, each port being in optical communication with a modulator comprising two arm paths, characterized in that: the modulator comprises a Mach-Zehnder modulator; an internal light bending section is disposed between the ports (104, 106) within the integrated dual optical emission port laser such that both optical emission ports (104, 106) communicate with the same optical chip output face; the integrated dual optical emission port laser is tuned with tunable mirrors (126,128); outputs of the first optical emission port and the second optical emission port are balanced so that relatively equal power is transmitted out of each tunable mirror; the first and second optical emission ports (104, 106) are respectively coupled directly to the two arm paths of the modulator; and the tunable mirrors are disposed such that one is set relative to the other tunable mirror to provide a half wavelength phase shift of the first optical emission port with respect to the second optical emission port. an integrated dual optical emission port laser having a first optical emission port and a second optical emission port, each port being in optical communication with a modulator comprising two arm paths, characterized in that: the modulator comprises a Mach-Zehnder modulator; an internal light bending section is disposed between the ports (104, 106) within the integrated dual optical emission port laser such that both optical emission ports (104, 106) communicate with the same optical chip output face; the integrated dual optical emission port laser is tuned with tunable mirrors (126,128); outputs of the first optical emission port and the second optical emission port are balanced so that relatively equal power is transmitted out of each tunable mirror; the first and second optical emission ports (104, 106) are respectively coupled directly to the two arm paths of the modulator; and the tunable mirrors are disposed such that one is set relative to the other tunable mirror to provide a half wavelength phase shift of the first optical emission port with respect to the second optical emission port. the modulator comprises a Mach-Zehnder modulator; an internal light bending section is disposed between the ports (104, 106) within the integrated dual optical emission port laser such that both optical emission ports (104, 106) communicate with the same optical chip output face; the integrated dual optical emission port laser is tuned with tunable mirrors (126,128); outputs of the first optical emission port and the second optical emission port are balanced so that relatively equal power is transmitted out of each tunable mirror; the first and second optical emission ports (104, 106) are respectively coupled directly to the two arm paths of the modulator; and the tunable mirrors are disposed such that one is set relative to the other tunable mirror to provide a half wavelength phase shift of the first optical emission port with respect to the second optical emission port.
A sanitary fixture, comprising a sensor fitting which is supplied with power, the sensor fitting being equipped with a first signal-processing communication unit (1.1), and the sanitary fixture having an electrically operated valve which automatically closes when there is no power and has a second signal-processing communication unit (2.1) and a power supply (2.2), the sensor fitting and the valve being connected fluidically to each other via a water pipe, and the two communication units (1.1, 2.1) being connected to each other to transmit information, characterised in that to ensure hygienic flushing when the power supply (2.2) is switched off, the water pipe is provided with a pressure sensor, which is connected to the first communication unit (1.1), for measuring the piped water pressure, and the valve is provided with an additional power supply (2.3).
A moisture crosslinkable polymeric composition comprising: a. a silane-functionalized polyolefin polymer selected from the group consisting of silane functionalized polyethylene polymers, silane functionalized polypropylene polymers, and blends thereof; b. an acidic silanol condensation catalyst selected from the group consisting of organic sulfonic acids and hydrolyzable precursors thereof, organic phosphonic acids and hydrolyzable precursors thereof and halogen acids; and c. an antioxidant, being a secondary amine substituted with two aromatic groups. a. a silane-functionalized polyolefin polymer selected from the group consisting of silane functionalized polyethylene polymers, silane functionalized polypropylene polymers, and blends thereof; b. an acidic silanol condensation catalyst selected from the group consisting of organic sulfonic acids and hydrolyzable precursors thereof, organic phosphonic acids and hydrolyzable precursors thereof and halogen acids; and c. an antioxidant, being a secondary amine substituted with two aromatic groups.
A method performed by a user equipment, the method comprising: receiving, from a base station, information regarding first physical resource blocks, related to a first partitioning of channel resource elements, that can carry, in downlink, a configurable enhanced physical downlink control channel for allocating resources to a data channel; determining a number of enhanced control channel elements, related to a second partitioning of channel resource elements, to be used per physical resource block of the first physical resource blocks; determining, for at least one first enhanced control channel element, an enhanced control channel element index based on: i) the information regarding the first physical resource blocks, and ii) the determined number of enhanced control channel elements to be used per physical resource block; and determining, for at least one physical uplink control channel resource, related to a third partitioning of channel resource elements, a physical uplink control channel index based on the determined enhanced control channel element index and according to the information regarding the first physical resource blocks, wherein the first partitioning is related to a partitioning used for allocating channel resources to the data channel, wherein the second partitioning is related to the allocation of channel resources of the enhanced physical downlink control channel, and wherein the third partitioning is related to allocating channel resources of a physical uplink control channel. receiving, from a base station, information regarding first physical resource blocks, related to a first partitioning of channel resource elements, that can carry, in downlink, a configurable enhanced physical downlink control channel for allocating resources to a data channel; determining a number of enhanced control channel elements, related to a second partitioning of channel resource elements, to be used per physical resource block of the first physical resource blocks; determining, for at least one first enhanced control channel element, an enhanced control channel element index based on: i) the information regarding the first physical resource blocks, and ii) the determined number of enhanced control channel elements to be used per physical resource block; and determining, for at least one physical uplink control channel resource, related to a third partitioning of channel resource elements, a physical uplink control channel index based on the determined enhanced control channel element index and according to the information regarding the first physical resource blocks, wherein the first partitioning is related to a partitioning used for allocating channel resources to the data channel, wherein the second partitioning is related to the allocation of channel resources of the enhanced physical downlink control channel, and wherein the third partitioning is related to allocating channel resources of a physical uplink control channel.
Apparatus for passing at least one conduit through a wall opening leading through a building wall with an outer clamping member, which may be engaged with the building wall and is adapted to overlie the opening on the outer side of the building and has a hole for the passage of the conduit, and an inner clamping body, which is engageable with the building wall and is adapted to overlie the opening on the outer side of the building, through which the conduit may be passed, whereby the two clamping members have means for clamping the conduit passed through them, wherein the conduit can be at least one speedpipe without a protective tube surrounding it, wherein the inner clamping member has a flexible section, wherein connected to the inner side of the outer clamping member there is an apertured tube, which is provided with a plurality of small holes and which can surround the speedpipe in the opening at least over a proportion of its length with a radial spacing and wherein the clamping members (3, 8) may be pressed tightly against the building wall when the opening extends horizontally and also at an angle thereto through the building wall, characterised in that the inner clamping member has a tubular section, through which the speedpipe may be passed and which is insertable into the opening and has a frame-like section extending in the unloaded state at an angle of 90° thereto, which may be pressed tightly against the building wall, wherein the two sections (9, 14) are integrally connected together by flexible webs and that the tubular section continues outside the opening with a U-shaped cross-section so that the speedpipe can pass out upwardly.
A method of depositing powder in an additive manufacturing system, comprising: driving a recoater along a drive axis; and oscillating the recoater along an oscillation axis while driving the recoater along the drive axis to overcome the effect of one or more particle movement restriction mechanisms and smooth the powder in a build chamber of an additive manufacturing system; and characterised by pitching or yawing the recoater relative to the drive axis. driving a recoater along a drive axis; and oscillating the recoater along an oscillation axis while driving the recoater along the drive axis to overcome the effect of one or more particle movement restriction mechanisms and smooth the powder in a build chamber of an additive manufacturing system; and characterised by pitching or yawing the recoater relative to the drive axis.
A patient interface device for use with a laser surgery apparatus, the device having an upper assembly and a lower assembly, said lower assembly attached to said upper assembly and said lower assembly defining a volume of space, wherein said lower assembly comprises: a suction ring, the suction ring comprising an annular top wall having an inner surface and a low skirt designed to come into contact with an eye of the patient, the suction ring defining an inverted J-shape in cross-section; the wall comprising a portion that extends toward said volume of space; a suction enhancer, wherein the suction enhancer is positioned within the suction ring and entirely adjacent the inner surface of the top wall, and in operation is removed from the surface of the eye; and a vacuum port formed in said lower assembly, wherein said vacuum port defines an opening that is in fluid communication with a vacuum source and is in fluid communication with said suction ring; whereby in operation said suction enhancer prevents blocking of the vacuum port. a suction ring, the suction ring comprising an annular top wall having an inner surface and a low skirt designed to come into contact with an eye of the patient, the suction ring defining an inverted J-shape in cross-section; the wall comprising a portion that extends toward said volume of space; a suction enhancer, wherein the suction enhancer is positioned within the suction ring and entirely adjacent the inner surface of the top wall, and in operation is removed from the surface of the eye; and a vacuum port formed in said lower assembly, wherein said vacuum port defines an opening that is in fluid communication with a vacuum source and is in fluid communication with said suction ring; whereby in operation said suction enhancer prevents blocking of the vacuum port.
Use of an absorption product comprising pentane-1,5-diol to reduce and/or eliminate odour from a mammal, said odour being one of the following: odour from urine, menstruation, faeces, liquids from leg ulcers, decubital ulcers and blood.
Method for recording measured values in a measuring system having a plurality of meters (12a-f) and communication adapters (24a, 24b) which each transmit one or more measured values to an evaluation unit, characterized by: • the measured value to be transmitted is converted before a transmission operation into a quick message and into a secured message, wherein the secured message authenticates the quick message and the quick message and/or the secured message contain the measured value, • the quick message is transmitted to the evaluation unit and the time of receipt is recorded, • the secured message is transmitted to the evaluation unit, • the quick message is authenticated with the secured message, the measured value is obtained from the quick message and/or the secured message and the time of receipt of the quick message is assigned to the obtained measured value. • the measured value to be transmitted is converted before a transmission operation into a quick message and into a secured message, wherein the secured message authenticates the quick message and the quick message and/or the secured message contain the measured value, • the quick message is transmitted to the evaluation unit and the time of receipt is recorded, • the secured message is transmitted to the evaluation unit, • the quick message is authenticated with the secured message, the measured value is obtained from the quick message and/or the secured message and the time of receipt of the quick message is assigned to the obtained measured value.
A card-shaped data carrier which has a structure of superimposed foil layers, wherein at least a first foil is arranged in the interior of the structure, wherein at least a second foil is arranged on the upper side of the first foil and at least a third foil is arranged on the lower side of the first foil, wherein a first overlay foil is arranged as the first outer side of the data carrier on the side of the second foil which is arranged opposite the first foil, wherein a second overlay foil is arranged as the second outer side of the data carrier on the side of the third foil which is arranged opposite the first foil, wherein a circumferential edge of the data carrier, which is arranged between first and second outer side (26, 28) of the data carrier and extends along an outer edge of the first and second outer side (26, 28), has at least one geometric shape, wherein the first, second and third foils (14, 16, 18) are colored, characterized in that the geometric shape of the edge is round or oblique.
An apparatus for obtaining ion energy distribution, IED, measurements in a plasma processing system comprising: a substrate for placement in the plasma processing system and exposed to the plasma; an ion energy analyser disposed in the substrate for measuring the ion energy distribution at the substrate surface during plasma processing, the analyser comprising a first conductive grid, G 0, a second conductive grid, G 1, a third conductive grid, G 2, a fourth conductive grid G 3, and a collection electrode, C, each grid separated by an insulating layer; wherein the apparatus further comprises: a battery power supply and a battery manager integrated in the substrate, for supplying and controlling voltage to each of the grids and the collector of the ion energy analyser; and a high voltage generating circuit (800, 900) within the substrate, the high voltage generating circuit (800, 900) comprising a low voltage to high voltage transformer feeding a voltage multiplier, wherein the high voltage generating circuit (800, 900) is configured to take the output voltage of the battery manager and to supply a voltage sweep to the third conductive grid. a substrate for placement in the plasma processing system and exposed to the plasma; an ion energy analyser disposed in the substrate for measuring the ion energy distribution at the substrate surface during plasma processing, the analyser comprising a first conductive grid, G 0, a second conductive grid, G 1, a third conductive grid, G 2, a fourth conductive grid G 3, and a collection electrode, C, each grid separated by an insulating layer; wherein the apparatus further comprises: a battery power supply and a battery manager integrated in the substrate, for supplying and controlling voltage to each of the grids and the collector of the ion energy analyser; and a high voltage generating circuit (800, 900) within the substrate, the high voltage generating circuit (800, 900) comprising a low voltage to high voltage transformer feeding a voltage multiplier, wherein the high voltage generating circuit (800, 900) is configured to take the output voltage of the battery manager and to supply a voltage sweep to the third conductive grid. a battery power supply and a battery manager integrated in the substrate, for supplying and controlling voltage to each of the grids and the collector of the ion energy analyser; and a high voltage generating circuit (800, 900) within the substrate, the high voltage generating circuit (800, 900) comprising a low voltage to high voltage transformer feeding a voltage multiplier, wherein the high voltage generating circuit (800, 900) is configured to take the output voltage of the battery manager and to supply a voltage sweep to the third conductive grid.
A method of reading and writing to a plurality of bits in a spin-torque magnetoresistive memory array, the method comprising: destructively reading the bits in the plurality of bits in the spin-torque magnetoresistive memory array, each bit having a first or a second state, wherein destructively reading includes: sampling the bits in the spin-torque magnetoresistive memory array; setting the bits to the first state in the spin-torque memory array; resampling the bits in the spin-torque magnetoresistive memory array to evaluate states of the bits to determine, for each bit, whether the bit has the first state or the second state; and storing a value of each of the bits in one of a plurality of latches, the value being either the first state or the second state; after destructively reading the bits, providing first write-back current pulses for bits having a value corresponding to the second state in the plurality of latches; while providing the first write-back current pulses, simultaneously aborting, in response to a write operation to a portion of the plurality of bits, write-back current pulses for bits in the portion of the plurality of bits; and thereafter, providing second write-back current pulses for bits having the second state only for the portion of the plurality of the bits. sampling the bits in the spin-torque magnetoresistive memory array; setting the bits to the first state in the spin-torque memory array; resampling the bits in the spin-torque magnetoresistive memory array to evaluate states of the bits to determine, for each bit, whether the bit has the first state or the second state; and storing a value of each of the bits in one of a plurality of latches, the value being either the first state or the second state; after destructively reading the bits, providing first write-back current pulses for bits having a value corresponding to the second state in the plurality of latches; while providing the first write-back current pulses, simultaneously aborting, in response to a write operation to a portion of the plurality of bits, write-back current pulses for bits in the portion of the plurality of bits; and thereafter, providing second write-back current pulses for bits having the second state only for the portion of the plurality of the bits.
A method for measuring the impedance of an electrode (120, 122, 124) in a droplet actuator, the droplet actuator comprising electrodes arranged to conduct droplet operations by electrowetting, the method comprising: (a) producing, by a power supply, an output voltage signal for providing an electrowetting voltage to the electrodes (120, 122, 124) of the droplet actuator; (b) superimposing an excitation signal onto the output voltage signal to produce a superimposed signal; (c) connecting the superimposed signal to an electrode (120, 122, 124) in the droplet actuator; (d) during impedance detection operations to detect an impedance of the electrode (120, 122, 124), stopping the output voltage signal from the power supply; and (e) measuring the impedance of the electrode (120, 122, 124) produced by the excitation signal, wherein the impedance indicates presence or absence of liquid at the electrode (120, 122, 124). (a) producing, by a power supply, an output voltage signal for providing an electrowetting voltage to the electrodes (120, 122, 124) of the droplet actuator; (b) superimposing an excitation signal onto the output voltage signal to produce a superimposed signal; (c) connecting the superimposed signal to an electrode (120, 122, 124) in the droplet actuator; (d) during impedance detection operations to detect an impedance of the electrode (120, 122, 124), stopping the output voltage signal from the power supply; and (e) measuring the impedance of the electrode (120, 122, 124) produced by the excitation signal, wherein the impedance indicates presence or absence of liquid at the electrode (120, 122, 124).