mhurhangee/ep-ind-claims huggingface dataset:
A sanitary washing device, comprising: a casing; and a water supply pipe that is connected to the casing a recess that is arranged on one of left and right peripheral sides of the casing and formed into a spot-facing shape so as to have a step against another site on a lower surface of the casing so as to form in the casing, an open space capable of laying the water supply pipe, characterized in that: the water supply pipe is rotatable in the open space in a surface direction parallel to the lower surface of the casing about an axis being a vertically upward direction of the sanitary washing device. a casing; and a water supply pipe that is connected to the casing a recess that is arranged on one of left and right peripheral sides of the casing and formed into a spot-facing shape so as to have a step against another site on a lower surface of the casing so as to form in the casing, an open space capable of laying the water supply pipe, characterized in that: the water supply pipe is rotatable in the open space in a surface direction parallel to the lower surface of the casing about an axis being a vertically upward direction of the sanitary washing device.
A method for calibrating a set of devices, each device comprising an amplifying component configured to output a signal that is amplified in power with respect to an input radio frequency signal and a measuring component that outputs a digital signal indicative of radio frequency power detected at the amplifying component, the method characterized in that it comprises: selecting a frequency from a set of frequencies in a bandwidth of radio frequency electromagnetic waves; selecting a phase value from a set of phase values of radio frequency electromagnetic waves; selecting a power level from a set of power levels; setting a subset of the set of devices to output a radio frequency signal of the selected frequency, the selected phase value and the selected power level; measuring a forward power level for the subset of the set of devices that is outputting the radio frequency signal; measuring a backward power level for a subset of the set of devices that is not outputting the radio frequency signal; repeating the setting and measuring steps for each power level in the set of power levels; processing the measurements of the forward and backward power levels to calibrate the digital signal output from the measuring component of each of the set of devices; and encoding the calibrated digital signal output into non-volatile memory. selecting a frequency from a set of frequencies in a bandwidth of radio frequency electromagnetic waves; selecting a phase value from a set of phase values of radio frequency electromagnetic waves; selecting a power level from a set of power levels; setting a subset of the set of devices to output a radio frequency signal of the selected frequency, the selected phase value and the selected power level; measuring a forward power level for the subset of the set of devices that is outputting the radio frequency signal; measuring a backward power level for a subset of the set of devices that is not outputting the radio frequency signal; repeating the setting and measuring steps for each power level in the set of power levels; processing the measurements of the forward and backward power levels to calibrate the digital signal output from the measuring component of each of the set of devices; and encoding the calibrated digital signal output into non-volatile memory.
Method for producing a device for the intake or manipulation of a fluid, wherein a flat and/or non-preformed and/or non-structured cover film is laminated onto a carrier, characterised in that for the lamination, a mask or a heated punch with at least one recess or opening is pressed onto the cover film, which is formed as a heat-sealing film, under the action of heat at 80 to 100°C so that, exclusively hereby, the cover film in the region of the recess or opening is not connected to the carrier and/or is not connected to a membrane, but is curved.
A transistor device comprising: in a semiconductor body, a drift region, a body region adjoining the drift region, and a source region separated from the drift region by the body region; a gate electrode dielectrically insulated from the body region by a gate dielectric; a source electrode electrically connected to the source region; at least one field electrode dielectrically insulated from the drift region by a field electrode dielectric; and a rectifier element coupled between the source electrode and the field electrode, wherein the field electrode and the field electrode dielectric are arranged in a first trench that extends from a first surface of the semiconductor body into the semiconductor body, wherein the rectifier element is integrated in the first trench in a rectifier region that is adjacent at least one of the source region and the body region, and wherein the field electrode comprises a doped polycrystalline semiconductor material. in a semiconductor body, a drift region, a body region adjoining the drift region, and a source region separated from the drift region by the body region; a gate electrode dielectrically insulated from the body region by a gate dielectric; a source electrode electrically connected to the source region; at least one field electrode dielectrically insulated from the drift region by a field electrode dielectric; and a rectifier element coupled between the source electrode and the field electrode, wherein the field electrode and the field electrode dielectric are arranged in a first trench that extends from a first surface of the semiconductor body into the semiconductor body, wherein the rectifier element is integrated in the first trench in a rectifier region that is adjacent at least one of the source region and the body region, and wherein the field electrode comprises a doped polycrystalline semiconductor material.
A long-range optical device, comprising two tubes (18, 19) for accommodating long-range optical components (2, 3); a first folding bridge (20, 40), a second folding bridge (21, 41), which are pivotably arranged between the tubes (18, 19) of the long-range optical device and wherein each of the folding bridges (20, 21, 32; 40, 41, 42) comprises at least a first and a second bridge element (28, 29, 30, 31, 33, 34, 43, 44) that are associated with each other and pivotable relative to each other; wherein at least one folding bridge (20, 21, 32; 40, 41, 42) has a fit which prevents mechanical contact of the bridge elements (43, 44; 28, 29, 30, 31, 33, 34) to each other, at least in sections of the folding or pivoting range of the bridge elements (28, 29, 30, 31, 33, 34, 43, 44) in the absence of an external force; wherein the one bridge element of the at least one folding bridge has a closed shape with a hinge eye, and the other bridge element has an open shape and encompasses the hinge eye of the one bridge element when assembled; whereby a gap is defined by the respective diameters of the perimeters and of the bridge elements and between the open perimeter (47, 47', 47") of the one bridge element and the outer perimeter (46, 46', 46") of the hinge eye of the other bridge element, between the bridge elements (43, 44; 28, 29, 30, 31, 33, 34) of said at least one folding bridge (20, 21, 32; 40, 41, 42). two tubes (18, 19) for accommodating long-range optical components (2, 3); a first folding bridge (20, 40), a second folding bridge (21, 41), which are pivotably arranged between the tubes (18, 19) of the long-range optical device and wherein each of the folding bridges (20, 21, 32; 40, 41, 42) comprises at least a first and a second bridge element (28, 29, 30, 31, 33, 34, 43, 44) that are associated with each other and pivotable relative to each other; wherein at least one folding bridge (20, 21, 32; 40, 41, 42) has a fit which prevents mechanical contact of the bridge elements (43, 44; 28, 29, 30, 31, 33, 34) to each other, at least in sections of the folding or pivoting range of the bridge elements (28, 29, 30, 31, 33, 34, 43, 44) in the absence of an external force; wherein the one bridge element of the at least one folding bridge has a closed shape with a hinge eye, and the other bridge element has an open shape and encompasses the hinge eye of the one bridge element when assembled; whereby a gap is defined by the respective diameters of the perimeters and of the bridge elements and between the open perimeter (47, 47', 47") of the one bridge element and the outer perimeter (46, 46', 46") of the hinge eye of the other bridge element, between the bridge elements (43, 44; 28, 29, 30, 31, 33, 34) of said at least one folding bridge (20, 21, 32; 40, 41, 42).
Assembly for operating at least one semiconductor component, comprising - at least one semiconductor component to be operated and - at least one thermoelectric component, the thermoelectric component being configured to control the temperature of the semiconductor component, in particular to cool and/or heat the semiconductor component, the assembly having at least one supply current connection (26, 28) for supplying energy to the semiconductor component by means of a supply current (I V), the assembly having a control unit and a temperature sensor which is connected to the control unit and is configured to detect a temperature of the semiconductor component, characterized in that the control unit is configured to conduct a portion (p%), which is dependent on the temperature, of the supply current (I V), which is fed into the assembly at the supply current connection (26, 28), past the semiconductor component and to feed said portion into the thermoelectric component. - at least one semiconductor component to be operated and - at least one thermoelectric component, the thermoelectric component being configured to control the temperature of the semiconductor component, in particular to cool and/or heat the semiconductor component, the assembly having at least one supply current connection (26, 28) for supplying energy to the semiconductor component by means of a supply current (I V), the assembly having a control unit and a temperature sensor which is connected to the control unit and is configured to detect a temperature of the semiconductor component, characterized in that the control unit is configured to conduct a portion (p%), which is dependent on the temperature, of the supply current (I V), which is fed into the assembly at the supply current connection (26, 28), past the semiconductor component and to feed said portion into the thermoelectric component.
A dental implant comprising: an outer thread that is serrated to have saw-teeth, each saw-tooth having a vertical inclination (111, β 1) in a proximal-distal direction, as illustrated in figures 2A and 2B an extent (h 1) in a radial direction in respect to an axis of the implant, and a horizontal inclination (112, α 1) tangential to a radius (r 1) extending from the axis of the implant as illustrated in figure 3, and at least one body thread on a body of the implant that winds parallel to the outer thread, wherein the at least one body thread is serrated to have saw-teeth, each saw-tooth having a vertical inclination (121, β 2) in a proximal-distal direction, as illustrated in figures 2A and 2B an extent (h 2) in a radial direction in respect to the axis of the implant, and a horizontal inclination (122, α 2) tangential to a radius (r 2) extending from the axis of as illustrated in figure 3, wherein the horizontal inclination of the saw-teeth of the at least one body thread is in an opposite direction in respect to the saw-teeth of the horizontal inclination of the outer thread. an outer thread that is serrated to have saw-teeth, each saw-tooth having a vertical inclination (111, β 1) in a proximal-distal direction, as illustrated in figures 2A and 2B an extent (h 1) in a radial direction in respect to an axis of the implant, and a horizontal inclination (112, α 1) tangential to a radius (r 1) extending from the axis of the implant as illustrated in figure 3, and at least one body thread on a body of the implant that winds parallel to the outer thread, wherein the at least one body thread is serrated to have saw-teeth, each saw-tooth having a vertical inclination (121, β 2) in a proximal-distal direction, as illustrated in figures 2A and 2B an extent (h 2) in a radial direction in respect to the axis of the implant, and a horizontal inclination (122, α 2) tangential to a radius (r 2) extending from the axis of as illustrated in figure 3,
A turbine engine comprising: a compressor section; a combustor in fluid communication with the compressor section; a turbine in fluid communication with the combustor, wherein said turbine comprises a first turbine section and a second turbine section; and a mid-turbine frame comprising an outer mid-turbine frame case connected to an inner mid-turbine frame case via a plurality of support members, said inner mid-turbine frame case having an inner manifold; characterised in that: said inner manifold comprises a first outlet operable to distribute gas to the first turbine section, and a second outlet operable to distribute gas to the second turbine section; and the first turbine section comprises a low pressure turbine rotor and the second turbine section comprises a high pressure turbine rotor. a compressor section; a combustor in fluid communication with the compressor section; a turbine in fluid communication with the combustor, wherein said turbine comprises a first turbine section and a second turbine section; and a mid-turbine frame comprising an outer mid-turbine frame case connected to an inner mid-turbine frame case via a plurality of support members, said inner mid-turbine frame case having an inner manifold; said inner manifold comprises a first outlet operable to distribute gas to the first turbine section, and a second outlet operable to distribute gas to the second turbine section; and the first turbine section comprises a low pressure turbine rotor and the second turbine section comprises a high pressure turbine rotor.
A fusion reactor comprising a reactor vessel and an apparatus for generating a plasma, the apparatus comprising: one or more filaments operably coupled to one or more power supplies; a radiofrequency, RF, electrode for insertion into the reactor vessel and operably coupled to an RF power supply; and wherein the one or more filaments are configured to provide electrons into the reactor vessel, and the RF electrode is configured to generate a plasma within the reactor vessel. one or more filaments operably coupled to one or more power supplies; a radiofrequency, RF, electrode for insertion into the reactor vessel and operably coupled to an RF power supply; and wherein the one or more filaments are configured to provide electrons into the reactor vessel, and the RF electrode is configured to generate a plasma within the reactor vessel.
A polypeptide of the general structural formula X n -C 1 -X 1-50 -C 2 -X 0-5 -C 3 -X 1-100 -C 4 -X 1-100 -C 5 -X 1-50 -C 6 -X 0-5 -C 7 -X 1-50 -C 8 -X m where X is any of the 20 naturally occurring amino acids, n and m are numbers between 0 and 500, C is cystein, with the proviso that at least one of the peptide sequences abbreviated as X n or X m is a peptide sequence of at least 20 amino acids in length which is not linked to a hydrophobin naturally, wherein the structural formula comprises (i) only one hydrophobin, (ii) a SEQ ID NO: 2 sequence, and (iii) wherein X n or X m comprises a polypeptide sequence selected from SEQ ID NO: 16 or fragments of SEQ ID NO: 16 with 80-99% of said sequence, which polypeptide changes the contact angle by at least 20° after coating of a glass surface. where X is any of the 20 naturally occurring amino acids, n and m are numbers between 0 and 500, C is cystein, with the proviso that at least one of the peptide sequences abbreviated as X n or X m is a peptide sequence of at least 20 amino acids in length which is not linked to a hydrophobin naturally, wherein the structural formula comprises (i) only one hydrophobin, (ii) a SEQ ID NO: 2 sequence, and (iii) wherein X n or X m comprises a polypeptide sequence selected from SEQ ID NO: 16 or fragments of SEQ ID NO: 16 with 80-99% of said sequence, (i) only one hydrophobin, (ii) a SEQ ID NO: 2 sequence, and (iii) wherein X n or X m comprises a polypeptide sequence selected from SEQ ID NO: 16 or fragments of SEQ ID NO: 16 with 80-99% of said sequence, which polypeptide changes the contact angle by at least 20° after coating of a glass surface.
Compound planetary friction drive comprising a first sun wheel and planetary wheels, wherein said first sun wheel engages said planetary wheels, which planetary wheels are arranged with two outer parts having a first radius (r 1) and a central part having a second radius, wherein the second radius (r 2) differs from the first radius (r 1) and transition regions are provided between the outer parts and the central part, and wherein an outer ring annulus and a central ring annulus are provided that are in driving engagement with the planetary wheels, wherein the outer ring annulus has two parts between which, along the length of the planetary wheels, the central ring annulus is disposed, wherein the first sun wheel is in frictional engagement with the outer parts of the planetary wheels, said outer parts of the planetary wheels are in frictional engagement with the parts of the outer ring annulus and the central ring annulus is in frictional engagement with the central part of the planetary wheels, wherein the planetary wheels are both hollow and compressible uninterruptedly along their entire length spanning the outer parts, the transition regions and the central part.
A catheter system comprising: a delivery catheter assembly comprising: a main body having a proximal end portion and a distal end portion; a delivery catheter sheath projecting distally from the distal end portion of the main body; an inner core configured to a support a stent thereon, the inner core being axially advanceable through the main body of the delivery catheter assembly and the delivery catheter sheath; a handle member supported by the main body of the delivery catheter assembly, the delivery catheter assembly being configured such that the handle member and the inner core move together in an axial direction when the handle member is connected to the inner core; and an adjustment member supported by the main body, the adjustment member being configured such that rotation of the adjustment member causes the adjustment member to move axially along the main body; wherein the handle member is axially moveable along the main body of the delivery catheter assembly between the distal end portion of the main body and the adjustment member by either axially sliding the handle member relative to the main body or by rotating the adjustment member relative to the main body when the adjustment member is rotated to provide an axial contact force with the handle member; and wherein the main body comprises a slot configured to receive a protruding portion of the handle member. a main body having a proximal end portion and a distal end portion; a delivery catheter sheath projecting distally from the distal end portion of the main body; an inner core configured to a support a stent thereon, the inner core being axially advanceable through the main body of the delivery catheter assembly and the delivery catheter sheath; a handle member supported by the main body of the delivery catheter assembly, the delivery catheter assembly being configured such that the handle member and the inner core move together in an axial direction when the handle member is connected to the inner core; and an adjustment member supported by the main body, the adjustment member being configured such that rotation of the adjustment member causes the adjustment member to move axially along the main body; wherein the handle member is axially moveable along the main body of the delivery catheter assembly between the distal end portion of the main body and the adjustment member by either axially sliding the handle member relative to the main body or by rotating the adjustment member relative to the main body when the adjustment member is rotated to provide an axial contact force with the handle member; and wherein the main body comprises a slot configured to receive a protruding portion of the handle member.
Laboratory system, comprising: - at least one rack comprising retainers, wherein the at least one rack is adapted to carry laboratory sample containers inserted in the retainers, and - a handling device, wherein the handling device is adapted to insert laboratory sample containers in the retainers of the at least one rack or remove laboratory sample containers from the retainers of the at least one rack being placed at a processing position depending on location information indicating the location of the at least one rack being placed at the processing position relative to the handling device, characterized in that the laboratory system further comprises: - a plurality of teaching devices, - wherein a respective teaching device is geometrically formed such that it is insertable into a retainer of the at least one rack, and - wherein at least two, in particular at least three, teaching devices are inserted into a corresponding retainer of the at least one rack being placed at the processing position, and - a location information calculating device, wherein the location information calculating device is adapted to calculate the location information of the at least one rack being placed at the processing position depending on the location of the at least two teaching devices. - at least one rack comprising retainers, wherein the at least one rack is adapted to carry laboratory sample containers inserted in the retainers, and - a handling device, wherein the handling device is adapted to insert laboratory sample containers in the retainers of the at least one rack or remove laboratory sample containers from the retainers of the at least one rack being placed at a processing position depending on location information indicating the location of the at least one rack being placed at the processing position relative to the handling device, - a plurality of teaching devices, - wherein a respective teaching device is geometrically formed such that it is insertable into a retainer of the at least one rack, and - wherein at least two, in particular at least three, teaching devices are inserted into a corresponding retainer of the at least one rack being placed at the processing position, and - wherein a respective teaching device is geometrically formed such that it is insertable into a retainer of the at least one rack, and - wherein at least two, in particular at least three, teaching devices are inserted into a corresponding retainer of the at least one rack being placed at the processing position, and - a location information calculating device, wherein the location information calculating device is adapted to calculate the location information of the at least one rack being placed at the processing position depending on the location of the at least two teaching devices.
An electrically operated aerosol generating system for receiving an aerosol-forming substrate, the system comprising: a liquid storage portion for storing liquid aerosol-forming substrate; an electric heater comprising at least one heating element for heating the liquid aerosol-forming substrate; and electric circuitry configured to monitor activation of the electric heater characterised that that the electric circuitry is further configured to estimate an amount of liquid aerosol-forming substrate remaining in the liquid storage portion based on the monitored activation. a liquid storage portion for storing liquid aerosol-forming substrate; an electric heater comprising at least one heating element for heating the liquid aerosol-forming substrate; and