mhurhangee/ep-ind-claims huggingface dataset:
A sterile drape suitable for placement over a display of a console, comprising: a first sheet configured for covering a front of the display comprising a top edge; a second sheet comprising a top edge and a bottom edge, wherein the top edge of the first sheet is coupled with the top edge of the second sheet, wherein the first sheet and second sheet provide a downward-facing first pocket configured for fittedly mounting to the top of the display; characterised by a third sheet comprising a bottom edge, wherein the bottom edge of the second sheet is coupled with the bottom edge of the third sheet, wherein the second sheet and the third sheet provide an upward facing second pocket configured to receive at least a portion of a user's hand. a first sheet configured for covering a front of the display comprising a top edge; a second sheet comprising a top edge and a bottom edge, wherein the top edge of the first sheet is coupled with the top edge of the second sheet, wherein the first sheet and second sheet provide a downward-facing first pocket configured for fittedly mounting to the top of the display; characterised by a third sheet comprising a bottom edge, wherein the bottom edge of the second sheet is coupled with the bottom edge of the third sheet, wherein the second sheet and the third sheet provide an upward facing second pocket configured to receive at least a portion of a user's hand.
Heat exchanger comprising a stack of plates comprising a lower plate onto which the other plates are stacked, the said other plates comprising a base plate immediately adjacent to the lower plate, the heat exchanger also comprising a fixation plate, and a reinforcement plate between the fixation plate and the lower plate, wherein the heat exchanger further comprises reinforcing inserts between the base plate and the lower plate, characterized by said reinforcing inserts having an arcuate shape.
Density meter (1; 20) for slurry which is transported through a pipe, the density meter comprising: - a pipe part; - flexible pipe couplings (5, 6) arranged on either end of the pipe part for coupling the pipe part to a feed pipe and a discharge pipe, which pipe couplings (5, 6) impart to the pipe part at least one degree of freedom relative to the feed pipe and the discharge pipe; - a force sensor for measuring a force in the direction of the at least one degree of freedom between the pipe part and a fixed point, such as a floor; characterized by - an accelerometer arranged on the pipe part for measuring the accelerations of the pipe part in the direction of the at least one degree of freedom; and - computing means for computing the density of the slurry in the pipe part on the basis of the volume of the pipe part, the force measured by the force sensor and the acceleration measured by the accelerometer. - a pipe part; - flexible pipe couplings (5, 6) arranged on either end of the pipe part for coupling the pipe part to a feed pipe and a discharge pipe, which pipe couplings (5, 6) impart to the pipe part at least one degree of freedom relative to the feed pipe and the discharge pipe; - a force sensor for measuring a force in the direction of the at least one degree of freedom between the pipe part and a fixed point, such as a floor; - an accelerometer arranged on the pipe part for measuring the accelerations of the pipe part in the direction of the at least one degree of freedom; and - computing means for computing the density of the slurry in the pipe part on the basis of the volume of the pipe part, the force measured by the force sensor and the acceleration measured by the accelerometer.
A method for controlling at least two energy converters for providing heat or cooling capacity to a distribution system comprising at least one heat or cold sink, wherein a heat or cooling capacity demand Q̇ of at least one distribution system is determined, wherein at least a first energy converter uses electric power to generate available heat or cooling capacities to meet the heat or cooling capacity demand of the distribution system, wherein at least two available heat or cooling capacities Q̇ h of the at least two energy converters are determined, wherein a most favourable combination K best for the heat or cooling capacity demand Q̇ of the distribution system is selected from the at least two available heat or cooling capacities Q̇ h of two energy converters, wherein, for the at least one first energy converter, an electric power consumption of the first energy converter and a price level assigned to the electric power consumption are assigned to each available heat or cooling capacity, and the energy converters adjust a set value of the energy converter according to the combination K best, depending on the selected available capacities Q̇ h, wherein the combination K best is selected for the respective available heat or cooling capacity based on current electricity prices, wherein a selectable weight coefficient is assigned to each of the at least two available heat and cooling capacities, wherein the at least one first energy converter represents a variable speed air/water heat pump, wherein the performance factor of the air/water heat pump is dependent on the flow temperature of the air/water heat pump, an outside temperature, and a compressor speed of a compressor of the air/water heat pump, wherein, at a given flow temperature and at varying compressor speeds, varying available heat or cooling capacities with varying outputs and varying performance factors can be released.
Slide ring seal comprising a cooling circuit, through which liquid can flow and which has a liquid inflow and a liquid outflow, a first slide ring, a second slide ring, which is arranged coaxially with respect to the first slide ring, and a counterpart ring, wherein the slide rings (4, 5) and the counterpart ring have in each case at least one seal surface (7, 8, 9, 10), wherein the in each case at least one seal surface (7, 8) of the slide rings (4, 5) makes contact with the at least one seal surface (9, 10) of the counterpart ring in a sealingly abutting manner, wherein the first slide ring has at least one first cooling channel which is configured as a feed line or discharge line to or from the seal surfaces (7, 8, 9, 10), wherein the second slide ring has at least one second cooling channel which is configured as a discharge line or feed line from or to the seal surfaces (7, 8, 9, 10), wherein the feed line or discharge line of the first slide ring and the discharge line or feed line of the second slide ring are arranged on those circumferential sides (16, 17) of the slide rings (4, 5) which face towards one another in a radial direction, and form an integral feature of the respective slide ring (4, 5), and wherein the liquid inflow is connected in a flow-conducting manner to the feed line and the liquid outflow is connected in a flow-conducting manner to the discharge line, characterized in that the cooling channels (11, 13) are each of substantially groove-shaped form and are radially open in the direction of the in each case other slide ring (5, 4).
A driver circuit for a light emitting diode, comprising: a first driver circuit (32,32',32") for generating a first output current (I hi g n) for driving the light emitting diode, wherein the first driver circuit (32,32',32") has a control switch (44;70) for interrupting the supply of the first output current; a second driver circuit for generating a second output current (I low) for driving the light emitting diode, wherein the second driver circuit has a control switch for interrupting the supply of the second output current, wherein the output current of the driver circuit comprises the combination of the first and second driver circuit output currents, in the form of a pulse width modulated current which alternates between a high current including the first output current (I hi g h) generated by the first driver circuit and a low current comprising the second output current generated by the second driver circuit, wherein the low current (I low) is less than or equal to 1 mA and the high current (I hi g h) is greater than or equal to 10mA, and the supply of the first output current is interrupted with the frequency of the pulse width modulated output, characterised in that the second output current is on for the duration of a measurement cycle such that the high current includes the first and second output currents. a first driver circuit (32,32',32") for generating a first output current (I hi g n) for driving the light emitting diode, wherein the first driver circuit (32,32',32") has a control switch (44;70) for interrupting the supply of the first output current; a second driver circuit for generating a second output current (I low) for driving the light emitting diode, wherein the second driver circuit has a control switch for interrupting the supply of the second output current, wherein the output current of the driver circuit comprises the combination of the first and second driver circuit output currents, in the form of a pulse width modulated current which alternates between a high current including the first output current (I hi g h) generated by the first driver circuit and a low current comprising the second output current generated by the second driver circuit, wherein the low current (I low) is less than or equal to 1 mA and the high current (I hi g h) is greater than or equal to 10mA, and the supply of the first output current is interrupted with the frequency of the pulse width modulated output, characterised in that the second output current is on for the duration of a measurement cycle such that the high current includes the first and second output currents.
An aerosol-generating article which can be electrically heated comprising: an aerosol-generating substrate comprising at least one aerosol former in an amount of between 5 percent and 30 percent by weight of the aerosol-generating substrate; a mouthpiece; and a paper wrapper circumscribing at least a portion of the aerosol-generating substrate, the paper wrapper having a wet tensile strength of at least 6.05 Newtons per 15 millimetres when measured in accordance with the Wet Tensile Strength Test, as recited in the description, using water. an aerosol-generating substrate comprising at least one aerosol former in an amount of between 5 percent and 30 percent by weight of the aerosol-generating substrate; a mouthpiece; and a paper wrapper circumscribing at least a portion of the aerosol-generating substrate, the paper wrapper having a wet tensile strength of at least 6.05 Newtons per 15 millimetres when measured in accordance with the Wet Tensile Strength Test, as recited in the description, using water.
Arrangement for producing an extinguishing foam, comprising a first venturi element for formation of a foaming agent and water mixture, the first venturi element having a water inlet by way of which a water flow can be supplied under pressure, a selectably closable foaming agent inlet by way of which a foaming agent can be fed, a mixing region in which the foaming agent can be admixed with the water flow in accordance with the venturi principle, and an outlet for the foaming agent and water mixture, a gas feed device by way of which, as gas, air and/or extinguishing gases can be fed to the foaming agent and water mixture for formation of the extinguishing foam, and an extinguishing foam outlet for delivery of the extinguishing foam, characterized in that the gas feed device comprises a second venturi element, which is connected in parallel with the first venturi element, for formation of a gas and water mixture, the second venturi element having a water inlet by way of which a water flow can be supplied under pressure, a selectably closable gas inlet by way of which the gas can be fed, a mixing region in which the gas can be admixed with the water flow in accordance with the venturi principle, and an outlet for the gas and water mixture, wherein the outlet of the first venturi element and the outlet of the second venturi element open into a mixing chamber which serves for formation of the extinguishing foam from the foaming agent and water mixture and the gas and water mixture and which is itself in fluid connection with the foaming agent outlet.
A cell viability or cell-cell interaction assay comprising: a) culturing a 3D cell culture; b) taking photomicrographs of said 3D cell culture at one or more times; c) analyzing said photomicrographs to measure one or more i) the number of cell clusters, or ii) total area of cell clusters; d) wherein the number of cell clusters, and total area of cell clusters are inversely proportional to cell viability or cell-cell interactions. a) culturing a 3D cell culture; b) taking photomicrographs of said 3D cell culture at one or more times; c) analyzing said photomicrographs to measure one or more i) the number of cell clusters, or ii) total area of cell clusters; d) wherein the number of cell clusters, and total area of cell clusters are inversely proportional to cell viability or cell-cell interactions.
Transponder module intended to be disposed on a moving object for the determination of a crossing time on a line of passage for a sports competition of a measuring system, the system comprising at least one transmission unit for a low-frequency electromagnetic field signal via an antenna disposed at the level of the line of passage, and a decoder unit, in order at least to receive at least one measurement signal from the activated transponder module near the line of passage, the transponder module comprising a low-frequency signal receiver in order to receive the electromagnetic field signal via a receiving antenna in order to be woken up by this electromagnetic field signal, a microcontroller receiving a receiving signal from the receiver, at least one transmitter linked to the microcontroller for transmission via a high-frequency antenna of at least one measurement result in a high-frequency measurement signal, characterised in that the transponder module comprises a time base in the microcontroller, the time base being activated upon the receipt, by the receiving antenna of the low-frequency signal receiver, of the low-frequency electromagnetic field signal at a line of passage, the electromagnetic field signal including modulation of a synchronisation command in order to synchronise the time base of the microcontroller of the transponder module on the basis of a time base of the decoder unit of the measuring system, and in that the microcontroller, once woken up, is capable of measuring several successive intensities of the captured electromagnetic field signal in order to reconstruct an electromagnetic field curve and to determine a crossing time directly in the transponder module by means of the activated and synchronised time base thereof, in order to transmit, to the decoder unit of the measurement system, the result of the crossing time determined by the microcontroller plus the value of the counting time of the activated time base thereof, when the message containing the result is transmitted, said decoder unit being arranged to assign or attribute a temporal stamp, which is synchronised to the time of day, to each message received from the transponder module and to allow the decoder unit to convert the temporal stamp of the transponder module into a temporal stamp of the time of day.
An agricultural machine comprising: a chassis; a header unit for interacting with crop material, the header unit being carried by the chassis; a tongue arrangement coupled to the chassis and facilitates a coupling with a traction unit, the tongue arrangement being pivotal about an axis relative to the header unit and the chassis; and a retaining system being configured to releasably couple the tongue arrangement to the header unit to thereby retain the header unit in an elevated position, wherein the retaining system includes a retaining pin, characterized in that the retaining system further includes a hook being captivated to the tongue arrangement, and wherein the retaining pin is coupled to the header unit. a chassis; a header unit for interacting with crop material, the header unit being carried by the chassis; a tongue arrangement coupled to the chassis and facilitates a coupling with a traction unit, the tongue arrangement being pivotal about an axis relative to the header unit and the chassis; and a retaining system being configured to releasably couple the tongue arrangement to the header unit to thereby retain the header unit in an elevated position, wherein the retaining system includes a retaining pin,
An apparatus for mixing a single-ended first signal with a differential second signal (LO +, LO -) to generate a differential output signal (OUT +, OUT -), the apparatus comprising: a single-ended portion (350.1) comprising a first transistor pair (360, 361), a first input of the first transistor pair (360, 361) coupled, via degeneration resistors (265, 266) and via a coupling capacitor, to the single-ended first signal, the gate inputs of the first transistor pair (360, 361) coupled to the differential second signal (LO +, LO -), the first transistor pair (360, 361) coupled to the differential output signal (OUT +, OUT -); and a dummy portion (350.2) comprising a second transistor pair (370, 371) matched to the first transistor pair (360, 361), a first input of the second transistor pair (370, 371) coupled to a dummy load terminal, the gates of the second transistor pair (370, 371) coupled to the differential second signal (LO +, LO -), the second transistor pair (370, 371) coupled to the differential output signal (OUT +, OUT -). a single-ended portion (350.1) comprising a first transistor pair (360, 361), a first input of the first transistor pair (360, 361) coupled, via degeneration resistors (265, 266) and via a coupling capacitor, to the single-ended first signal, the gate inputs of the first transistor pair (360, 361) coupled to the differential second signal (LO +, LO -), the first transistor pair (360, 361) coupled to the differential output signal (OUT +, OUT -); and a dummy portion (350.2) comprising a second transistor pair (370, 371) matched to the first transistor pair (360, 361), a first input of the second transistor pair (370, 371) coupled to a dummy load terminal, the gates of the second transistor pair (370, 371) coupled to the differential second signal (LO +, LO -), the second transistor pair (370, 371) coupled to the differential output signal (OUT +, OUT -).
Heat transfer medium, comprising fireclay, a fireclay-containing mixture or a ceramic material and coated with a moisture-repellent powder coating, characterised in that the powder coating is applied to all sides of the heat transfer medium with a layer thickness of 20 μm to 70 μm, consists of a high-temperature-resistant powder on an epoxy-silicone basis and/or silicone-polyester resin basis and is heat-resistant up to a temperature of 600 °C.
A multi-junction laser photovoltaic cell for converting laser energy into electric energy, comprising a substrate (100; 200), a cell unit body, an upper electrode (50; 70) and a lower electrode (51; 71), wherein the lower electrode and the upper electrode are electrically connected with a bottom and a top of the cell unit body, respectively, wherein the cell unit body comprises an ohmic contact layer (14; 34), a current spreading layer (13; 33), N PN-junction subcells (01B... 12B; 21B... 32B) and tunnel junctions (01A... 12A; 21A... 32A), wherein the tunnel junctions are arranged between two adjacent PN-junction subcells of the N PN-junction subcells, and N ≥12, characterized in that the subcells are divided into two groups from the light incident side to the opposite side of the light incident side, and each group of subcells has a different bandgap and are arranged in a decreasing order of the band gap from the light incident side the photovoltaic cell is a AlGaAs multi-junction cell, wherein the absorption layer of the 6 subcells at the bottom (01B... 06B) uses GaAs with a bandgap of 1.428 eV, the absorption layer of the 6 subcells on the top (07B... 12B) uses Al 0.07 Ga 0.93 As with a bandgap of 1.515 eV, or the photovoltaic cell is a InGaAsP multi-junction, wherein the absorption layer of the 6 subcells at the bottom (21B... 26B) uses In 0.845 Ga 0.155 As 0.337 P 0.663 with a bandgap of 1.1 eV, the absorption layer of the 6 subcells on the top (27B... 32B) uses In 0.89 Ga 0.11 As 0.24 P 0.76 with a bandgap of 1.17 eV. a substrate (100; 200), a cell unit body, an upper electrode (50; 70) and a lower electrode (51; 71), wherein the lower electrode and the upper electrode are electrically connected with a bottom and a top of the cell unit body, respectively, wherein the cell unit body comprises an ohmic contact layer (14; 34), a current spreading layer (13; 33), N PN-junction subcells (01B... 12B; 21B... 32B) and tunnel junctions (01A... 12A; 21A... 32A), wherein the tunnel junctions are arranged between two adjacent PN-junction subcells of the N PN-junction subcells, and N ≥12, characterized in that the subcells are divided into two groups from the light incident side to the opposite side of the light incident side, and each group of subcells has a different bandgap and are arranged in a decreasing order of the band gap from the light incident side the photovoltaic cell is a AlGaAs multi-junction cell, wherein the absorption layer of the 6 subcells at the bottom (01B... 06B) uses GaAs with a bandgap of 1.428 eV, the absorption layer of the 6 subcells on the top (07B... 12B) uses Al 0.07 Ga 0.93 As with a bandgap of 1.515 eV, or the photovoltaic cell is a InGaAsP multi-junction, wherein the absorption layer of the 6 subcells at the bottom (21B... 26B) uses In 0.845 Ga 0.155 As 0.337 P 0.663 with a bandgap of 1.1 eV, the absorption layer of the 6 subcells on the top (27B... 32B) uses In 0.89 Ga 0.11 As 0.24 P 0.76 with a bandgap of 1.17 eV.
A semiconductor substrate comprising: a single-crystalline SiC substrate; and a polycrystalline SiC substrate, wherein the single-crystalline SiC substrate and the polycrystalline SiC substrate are bonded via an interface layer, the interface layer is a composite material containing carbon, silicon (Si) and nitrogen, characterized in that the interface layer contains 1×10 21 atoms/cm 3 or more of nitrogen atoms a single-crystalline SiC substrate; and a polycrystalline SiC substrate, wherein the single-crystalline SiC substrate and the polycrystalline SiC substrate are bonded via an interface layer, the interface layer is a composite material containing carbon, silicon (Si) and nitrogen, characterized in that the interface layer contains 1×10 21 atoms/cm 3 or more of nitrogen atoms