mhurhangee/ep-ind-claims huggingface dataset:
Base system for shower cubicles, with a supporting device adjustable in a displacement height with at least one height adjustment with a bearing surface for at least one plate (27, 50), wherein the height adjustment comprises at least one endless threaded rod (14, 14a-14c) which is rotatably arranged in a L-shaped holder arranged at the supporting device (300b-300f) or double L-shaped bridge holder arranged in a take-up (13, 13a) fixedly arranged at the holder (12, 55), so that at the mounting of the base system (100, 100a) the supporting device (300b-300f) is adjustable in an adjustment height by rotations of the endless threaded rod in the take-up (13, 13a), wherein the bearing surface (3a-3f) remains below an upper end (66, 66a) of the endless threaded rod and for which a plate (27, 50) in the form of a carrier plate or a shower base plate or a carrier plate and a shower base plate is arranged at the holder (12, 55), and wherein the carrier plate and/or the shower base plate (50, 50a, 50b) shows at least one mounting or inspection flap (28, 28a, 28b) and/or at least one mounting hole (62, 62a), the centre of which is concentric with a longitudinal axis (68, 68a) of the endless threaded rod (14, 14c).
An adjustable lens, comprising: an electrically modulated optical material interposed between first and second transparent substrates; a common electrode on the first transparent substrate; an array of finger electrodes on the second transparent substrate that adjust a phase profile of the electrically modulated optical material; digital-to-analog converter circuits that provide voltages to the array of finger electrodes; and switching circuitry that couples the digital-to-analog converter circuits to a first group of finger electrodes in the array of finger electrodes during a first clock cycle and that couples the digital-to-analog converter circuits to a second group of finger electrodes during a second clock cycle, wherein at least one of the finger electrodes is part of the first and second groups and the circuitry is configured such that the at least one of the finger electrodes receives the same voltage in the first and second clock cycles. an electrically modulated optical material interposed between first and second transparent substrates; a common electrode on the first transparent substrate; an array of finger electrodes on the second transparent substrate that adjust a phase profile of the electrically modulated optical material; digital-to-analog converter circuits that provide voltages to the array of finger electrodes; and switching circuitry that couples the digital-to-analog converter circuits to a first group of finger electrodes in the array of finger electrodes during a first clock cycle and that couples the digital-to-analog converter circuits to a second group of finger electrodes during a second clock cycle, wherein at least one of the finger electrodes is part of the first and second groups and the circuitry is configured such that the at least one of the finger electrodes receives the same voltage in the first and second clock cycles.
A vacuum cleaner for cleaning a surface, comprising: a housing having a main suction nozzle and an auxiliary suction nozzle that is fluidly isolated from the main suction nozzle; a suction source for generating a working air flow at the one of the main suction nozzle and the auxiliary suction nozzle; a vacuum hose in fluid communication with the suction source and with one of the main suction nozzle and the auxiliary suction nozzle; characterized in that a port is provided in the housing in fluid communication with the auxiliary suction nozzle, wherein the vacuum hose is removably coupled to the port to fluidly communicate with the auxiliary suction nozzle; and a moveable door provided on the housing and selectively closing the port when the vacuum hose is uncoupled from the port. a housing having a main suction nozzle and an auxiliary suction nozzle that is fluidly isolated from the main suction nozzle; a suction source for generating a working air flow at the one of the main suction nozzle and the auxiliary suction nozzle; a vacuum hose in fluid communication with the suction source and with one of the main suction nozzle and the auxiliary suction nozzle; characterized in that a port is provided in the housing in fluid communication with the auxiliary suction nozzle, wherein the vacuum hose is removably coupled to the port to fluidly communicate with the auxiliary suction nozzle; and a moveable door provided on the housing and selectively closing the port when the vacuum hose is uncoupled from the port.
A semiconductor device comprising: a lead frame on which a semiconductor element is mounted and which is made of metal; and a resin (8, 9) sealing, of the lead frame, at least a surface on which the semiconductor element is mounted, wherein the lead frame has a scale-like portion (3, 3a, 3b) on which scale-shaped projections are consecutively formed, wherein the scale-like portion (3, 3a, 3b) is provided over both sides across a resin boundary portion (2b, 2c) which is a boundary between inside and outside of an area sealed by the resin (8, 9) on the lead frame; characterized in that the scale-like portion includes a scale portion on which the scale-shaped projections are consecutively provided, and ridge portions provided on both sides of the scale portion. a lead frame on which a semiconductor element is mounted and which is made of metal; and a resin (8, 9) sealing, of the lead frame, at least a surface on which the semiconductor element is mounted, wherein the lead frame has a scale-like portion (3, 3a, 3b) on which scale-shaped projections are consecutively formed, wherein the scale-like portion (3, 3a, 3b) is provided over both sides across a resin boundary portion (2b, 2c) which is a boundary between inside and outside of an area sealed by the resin (8, 9) on the lead frame; characterized in that the scale-like portion includes a scale portion on which the scale-shaped projections are consecutively provided, and ridge portions provided on both sides of the scale portion.
A method of a computing device including a touch sensing surface, the method comprising: obtaining a length of a major axis of a contact on or near the touch sensing surface; obtaining a distance of the contact from an edge of the touch sensing surface; based on a thumb profile, determining a length of a reference major axis of a thumb contact at the obtained distance; and identifying the contact as a thumb based on the length of the reference major axis and the length of the major axis of the contact. obtaining a length of a major axis of a contact on or near the touch sensing surface; obtaining a distance of the contact from an edge of the touch sensing surface; based on a thumb profile, determining a length of a reference major axis of a thumb contact at the obtained distance; and identifying the contact as a thumb based on the length of the reference major axis and the length of the major axis of the contact.
A data output apparatus comprising: reception means for receiving first and second image data from a data processing apparatus; detection means for detecting a change of a state of a short range wireless connection between the data output apparatus and the data processing apparatus or detecting that a first electric field intensity of a first signal received from the data processing apparatus is less than a predetermined value; determination means for determining that the short range wireless connection between the data output apparatus and the data processing apparatus is established after it is detected by said detection means that the short range wireless connection is disconnected or determining that a second electric field intensity of a second signal received from the data processing apparatus is more than the predetermined value after it is detected by said detection means that the first electric field intensity is less than the predetermined value; switching means for switching, in accordance with a fact that said determination means determines that the short range wireless connection with the data processing apparatus is established or that the second electric field intensity is more than the predetermined value, image data to be output from the first image data being output before the detection by said detection means to the second image data different from the first image data; and output means for outputting, in accordance with a switching result by said switching means, the second image data received by said reception means. reception means for receiving first and second image data from a data processing apparatus; detection means for detecting a change of a state of a short range wireless connection between the data output apparatus and the data processing apparatus or detecting that a first electric field intensity of a first signal received from the data processing apparatus is less than a predetermined value; determination means for determining that the short range wireless connection between the data output apparatus and the data processing apparatus is established after it is detected by said detection means that the short range wireless connection is disconnected or determining that a second electric field intensity of a second signal received from the data processing apparatus is more than the predetermined value after it is detected by said detection means that the first electric field intensity is less than the predetermined value; switching means for switching, in accordance with a fact that said determination means determines that the short range wireless connection with the data processing apparatus is established or that the second electric field intensity is more than the predetermined value, image data to be output from the first image data being output before the detection by said detection means to the second image data different from the first image data; and output means for outputting, in accordance with a switching result by said switching means, the second image data received by said reception means.
Device for spraying charged droplets of a liquid towards a target along a spraying direction, comprising: - a reservoir for receiving the liquid, - a first electrode being arranged at an outlet of said reservoir, - a second electrode forming a counter electrode to the first electrode for accelerating said droplets along the spraying direction, and - a housing holding the reservoir as well as said electrodes (100, 200), characterized in that said housing forms a spray chamber extending along the spraying direction, wherein the reservoir is connected to the spray chamber via said outlet and wherein the spray chamber comprises an opening facing said outlet along the spraying direction for ejecting the droplets out of the spray chamber, wherein the second electrode comprises a contact area being designed to contact said target into which said liquid is to be injected. - a reservoir for receiving the liquid, - a first electrode being arranged at an outlet of said reservoir, - a second electrode forming a counter electrode to the first electrode for accelerating said droplets along the spraying direction, and - a housing holding the reservoir as well as said electrodes (100, 200),
Backpack-type carrier for the transportation of loads on the back of a person, comprising a load-carrying carrier frame as well as straps that can be applied to the shoulders, wherein swivel-mounted onto the carrier frame in its placing down area on the ground is at least one bracket, wherein the bracket is can be swivelled about a horizontal axis so that at the end of the swivel movement it is in a position below the carrier, wherein the bracket can be swivelled onto a ground and is fixable, characterised in that the bracket is configured as a closed bracket and a frame section is swivel-mounted on the carrier frame.
Thymoquinone or a tautomer or a pharmaceutically acceptable salt thereof for use in the prevention and/or treatment of sepsis syndrome or a condition associated with sepsis syndrome in a human, wherein it is administered at a dosage in the range of 0.05 to 0.25 mg/kg body weight in one single dose.
An electric power steering apparatus of a vector control system that converts dq-axes current command values calculated based on at least a steering torque into dq-axes voltage command values (V d, V q), converts said dq-axes voltage command values into 3-phase voltage command values (V u *, V v *, V w *), converts said 3-phase voltage command values into 3-phase duty command values, driving-controls a 3-phase brushless motor by an inverter of a pulse widthmodulation control based on said 3-phase duty command values, and applies an assist torque to a steering system of a vehicle, characterized in that said electric power steering apparatus comprises: a dead time compensating section to estimate compensation signs of 3-phase current model command values in which said dq-axes current command values are converted into a 3-phase current command value model, to calculate a dead time compensation amount based on an inverter-applying voltage, and (121d, 121q) to add dead time compensation values (V d *, V q *) that are 2-phase values converted from multiplied results of said dead time compensation amount and said compensation signs to said dq-axes voltage command values (V d, V q) or to add (163U, 163V, 163W) said multiplied results to said 3-phase voltage command values (V u *, V v *, V W *), wherein a dead time compensation of said inverter is performed by using said dead time compensating section. a dead time compensating section to estimate compensation signs of 3-phase current model command values in which said dq-axes current command values are converted into a 3-phase current command value model, to calculate a dead time compensation amount based on an inverter-applying voltage, and (121d, 121q) to add dead time compensation values (V d *, V q *) that are 2-phase values converted from multiplied results of said dead time compensation amount and said compensation signs to said dq-axes voltage command values (V d, V q) or to add (163U, 163V, 163W) said multiplied results to said 3-phase voltage command values (V u *, V v *, V W *), wherein a dead time compensation of said inverter is performed by using said dead time compensating section.
A manual override device for controlling at least one valve in a power system, comprising: a rod having a first end and a second end; an attachment attachable to a spool of the at least one valve, the attachment including a clearance with respect to the first end of the rod so as to allow the attachment to move with the spool, during ordinary operation of the power system, without contacting the rod; a lever connected to the second end of the rod and configured to activate the manual override device by moving the rod in a longitudinal direction such that the first end of the rod makes contact with the attachment to move the spool, wherein the attachment includes a cutaway receptacle having a lip and a sidewall and the first end of the rod includes an extension; a housing attachable to a mount of the power system in the longitudinal direction below the spool, the housing including a plug end; and characterized in that the housing further includes a spring disposed on the plug end within the housing and a stop collar disposed over the spring, wherein the rod extends through the housing, the stop collar, spring and the plug end. a rod having a first end and a second end; an attachment attachable to a spool of the at least one valve, the attachment including a clearance with respect to the first end of the rod so as to allow the attachment to move with the spool, during ordinary operation of the power system, without contacting the rod; a lever connected to the second end of the rod and configured to activate the manual override device by moving the rod in a longitudinal direction such that the first end of the rod makes contact with the attachment to move the spool, wherein the attachment includes a cutaway receptacle having a lip and a sidewall and the first end of the rod includes an extension; a housing attachable to a mount of the power system in the longitudinal direction below the spool, the housing including a plug end; and characterized in that the housing further includes a spring disposed on the plug end within the housing and a stop collar disposed over the spring, wherein the rod extends through the housing, the stop collar, spring and the plug end.
A mixed powder having polytetrafluoroethylene as a main component, which comprises (i) a high molecular weight polytetrafluoroethylene that can be fibrillated, (ii) a low molecular weight polytetrafluoroethylene, a thermosetting resin or an inorganic filler as a non-hot melt processable component that is not fibrillated, and (iii) a hot melt processable fluoro polymer, silicone, polystyrene, polyethylene terephthalate, polyester, polyamide, acrylic resin, urethane resin, or a mixture thereof as a hot melt processable component with a melting point of lower than 320°C that is not fibrillated, wherein the content of (ii) the non-hot melt processable component is 20 to 40% by weight of the total, and wherein (iii) the hot melt processable component that is not fibrillated is contained at being equal to or more than 0.1% by weight but less than 20% by weight of the total. (i) a high molecular weight polytetrafluoroethylene that can be fibrillated, (ii) a low molecular weight polytetrafluoroethylene, a thermosetting resin or an inorganic filler as a non-hot melt processable component that is not fibrillated, and (iii) a hot melt processable fluoro polymer, silicone, polystyrene, polyethylene terephthalate, polyester, polyamide, acrylic resin, urethane resin, or a mixture thereof as a hot melt processable component with a melting point of lower than 320°C that is not fibrillated,
A method to measure noise data for noise parameters of a device under test in a test setup including an impedance tuner, comprising: (i) selecting a set of tuner states that can be used over multiple values of a sweep parameter by selecting said set of tuner states to vary reflection magnitude and phase, to produce a set of impedances at multiple sweep parameter values such that reflection magnitude and phase positions corresponding to the different tuner states are separated in an impedance plane at the multiple sweep parameter values, wherein the sweep parameter is frequency or bias applied to the DUT; (ii) setting the tuner state to one of the set of tuner states; (iii) setting the sweep parameter to a value in a set of the multiple sweep parameter values; (iv) with the DUT in place in the test setup, measuring noise data for noise parameters at said tuner state and sweep parameter value; (v) repeating steps (iii) and (vi) for a different sweep parameter value in said set of multiple sweep parameter values until data has been measured for all sweep parameter values in said set; (vi) changing the tuner state to another of said tuner states in said set of tuner states; (vii) repeating steps (iii), (vi), iv) and (vi) until data has been measured for each of said tuner states in said set of tuner states, wherein the data is measured as a function of the sweep parameter for said set of parameter values for one tuner state at a time. (i) selecting a set of tuner states that can be used over multiple values of a sweep parameter by selecting said set of tuner states to vary reflection magnitude and phase, to produce a set of impedances at multiple sweep parameter values such that reflection magnitude and phase positions corresponding to the different tuner states are separated in an impedance plane at the multiple sweep parameter values, wherein the sweep parameter is frequency or bias applied to the DUT; (ii) setting the tuner state to one of the set of tuner states; (iii) setting the sweep parameter to a value in a set of the multiple sweep parameter values; (iv) with the DUT in place in the test setup, measuring noise data for noise parameters at said tuner state and sweep parameter value; (v) repeating steps (iii) and (vi) for a different sweep parameter value in said set of multiple sweep parameter values until data has been measured for all sweep parameter values in said set; (vi) changing the tuner state to another of said tuner states in said set of tuner states; (vii) repeating steps (iii), (vi), iv) and (vi) until data has been measured for each of said tuner states in said set of tuner states,
A pedicle screw comprising: a threaded shaft portion; a head portion attached to the threaded shaft portion; a yoke portion: characterized in that the yoke portion is supported on the head portion for linear sliding movement relative to the head portion along an axis Y, wherein axis Y is different from the longitudinal axis of the threaded shaft portion; and one or more stop pins disposed between the head portion and the yoke portion and configured for linear sliding movement with the yoke portion relative to the head portion along axis Y, the one or more stop pins further configured to limit the distance of the linear sliding movement of the yoke portion relative to the head portion. a threaded shaft portion; a head portion attached to the threaded shaft portion; a yoke portion: characterized in that the yoke portion is supported on the head portion for linear sliding movement relative to the head portion along an axis Y, wherein axis Y is different from the longitudinal axis of the threaded shaft portion; and one or more stop pins disposed between the head portion and the yoke portion and configured for linear sliding movement with the yoke portion relative to the head portion along axis Y, the one or more stop pins further configured to limit the distance of the linear sliding movement of the yoke portion relative to the head portion.
A zolpidem composition, comprising: zolpidem tartrate and polacrillin potassium in a weight ratio of 1:8, wherein the zolpidem composition is obtainable by dry mixing of zolpidem tartrate and polacrillin potassium.
An LED module, comprising: - Supply connections; - connections for an LED series; - a circuit, which is designed to constitute a current-variable load at the supply connections, which produces a change in the power consumption of the LED module according to at least one predefined protocol, if a first supply voltage not equal to zero is applied to the supply connections, which is dimensioned in such a way that when an LED series is connected, said LED series is not conductive, and which is designed to constitute no load, if a second supply voltage not equal to zero is applied to the supply connection, in which the LED series is conductive and emits light, characterized in that the region of the supply voltage not equal to zero, which is dimensioned in such a way that when an LED series is connected, said LED series is not conductive, is divided into several sub-regions, wherein the circuit is designed in such a manner, that the change in the current-variable load is produced depending on a value of the first supply voltage according to one of several predefined protocols, wherein in each sub-area a different change in the load reception is carried out by the LED-module. - Supply connections; - connections for an LED series; - a circuit, which is designed to constitute a current-variable load at the supply connections, which produces a change in the power consumption of the LED module according to at least one predefined protocol, if a first supply voltage not equal to zero is applied to the supply connections, which is dimensioned in such a way that when an LED series is connected, said LED series is not conductive, and which is designed to constitute no load, if a second supply voltage not equal to zero is applied to the supply connection, in which the LED series is conductive and emits light,