mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling power in an electromagnetic test system, the electromagnetic test system having at least one operational path having a channel emulator output, at least one of an amplifier /attenuator combination and a variable gain amplifier, VGA, and an antenna , the method comprising: for a given desired output power level, C for the path, setting a channel emulator output power of the path to a power level B , and setting one of the attenuator and the VGA to achieve an attenuation setting A , such that C is a function of B and A ; the attenuation setting A being calculated based on an upper limit of the output power of the channel emulator and the desired output power level C ; and a sequence in which the setting of the channel emulator output power level B and the setting of the attenuation A are performed depending upon whether the desired output power level C is less than a current output level. for a given desired output power level, C for the path, setting a channel emulator output power of the path to a power level B , and setting one of the attenuator and the VGA to achieve an attenuation setting A , such that C is a function of B and A ; the attenuation setting A being calculated based on an upper limit of the output power of the channel emulator and the desired output power level C ; and
A surgical instrument comprising: a closure system configured to apply a closure force to an end effector to transition the end effector between an open position and a closed position; a displacement member coupled to the closure system, the displacement member movable between a first position and a second position to effect a motion at the end effector ; a motor coupled to the displacement member , the motor configured to drive the displacement member between the first position and the second position; a control circuit coupled to the motor , the control circuit configured to: determine the closure force exerted by the closure system; wherein a sensor coupled to the control circuit is configured to detect the closure force; retrieve an expected closure force; determine whether the closure force is within a tolerance of the expected closure force; and characterised in that the control circuit is configured to adjust the motor to adjust the velocity at which the displacement member is translated when the closure force is not within a tolerance of the expected closure force, wherein the adjustment applied to the motor is proportional to the degree to which the closure force is above or below a threshold range of the expected closure force. a closure system configured to apply a closure force to an end effector to transition the end effector between an open position and a closed position; a displacement member coupled to the closure system, the displacement member movable between a first position and a second position to effect a motion at the end effector ; a motor coupled to the displacement member , the motor configured to drive the displacement member between the first position and the second position; a control circuit coupled to the motor , the control circuit configured to: determine the closure force exerted by the closure system; wherein a sensor coupled to the control circuit is configured to detect the closure force; retrieve an expected closure force; determine whether the closure force is within a tolerance of the expected closure force; and determine the closure force exerted by the closure system; wherein a sensor coupled to the control circuit is configured to detect the closure force; retrieve an expected closure force; determine whether the closure force is within a tolerance of the expected closure force; and
Switching arrangement for a power transformer having a first and second winding , comprising - a preselector adapted to selectively connect the first winding to one of the two end contacts of the second winding ; - a first switch arranged in the connection between the preselector and the first winding , wherein the first winding is connectable to a first end or a second end of the second winding via a series connection of the first switch and the preselector ; - a polarity circuit formed by a polarity resistor ; - a second switch switchable/switched into connection of the polarity circuit with the first winding ; wherein - the switching arrangement is designed, before the preselector is switched over, to approach a point (K) on the first winding of a fine selector and to connect the first winding to a load tap point , to open the first switch and to close the first switch again only after the preselector has switched over; and wherein - said polarity circuit is adapted to connect a center tap of said second winding to said first winding and to a load tap point during switching of said preselector by closing said second switch prior to opening said first switch and opening said second switch again only after said preselector has switched and said first switch is closed again. - a preselector adapted to selectively connect the first winding to one of the two end contacts of the second winding ; - a first switch arranged in the connection between the preselector and the first winding , wherein the first winding is connectable to a first end or a second end of the second winding via a series connection of the first switch and the preselector ; - a polarity circuit formed by a polarity resistor ; - a second switch switchable/switched into connection of the polarity circuit with the first winding ; - the switching arrangement is designed, before the preselector is switched over, to approach a point (K) on the first winding of a fine selector and to connect the first winding to a load tap point , to open the first switch and to close the first switch again only after the preselector has switched over; and wherein - said polarity circuit is adapted to connect a center tap of said second winding to said first winding and to a load tap point during switching of said preselector by closing said second switch prior to opening said first switch and opening said second switch again only after said preselector has switched and said first switch is closed again.
A process for manufacturing a laminated glazing comprising at least a first glass sheet and a second glass sheet, wherein the face of the first glass sheet intended to be oriented toward the second is printed with a liquid enamel which is dried at a temperature not exceeding 400°C, then the first and the second glass sheets are bent together in contact with one another in their relative position of destination in the laminated glazing, by heating at a softening temperature of the glass, characterized in that the liquid enamel is an aqueous silicate paint comprising a refractory powder of pigments and a silicate binder powder, in the absence of glass frit, and in that the weight ratio of pigments to silicates is greater than 1.
Stencil frame for tensioning stencils of an angular shape comprising corner elements , edge elements , fastening elements and tensioning devices with a tensioning device being associated with each edge element ; the corner elements each have two, mutually perpendicular, guiding profiles , the two guiding profiles being joined at an intersection of their axes; the edge elements each have a uniaxial reception profile , each reception profile being connectable to two guiding profiles by loose fit; each tensioning device has at least one elastic element; each tensioning device connects between two neighbouring corner elements ; wherein a line of force exerted by each tensioning device is parallel to the axis of its corresponding reception profile , and optionally the line of force exerted by each tensioning device is uniaxial with the axis of its corresponding reception profile , each tensioning device is connected to the edge element in which it is received; wherein each tensioning device is not attached to its two neighbouring corner elements but rather simply abuts against and pushes against the guiding profiles of the two neighbouring corner elements . the corner elements each have two, mutually perpendicular, guiding profiles , the two guiding profiles being joined at an intersection of their axes; the edge elements each have a uniaxial reception profile , each reception profile being connectable to two guiding profiles by loose fit; each tensioning device has at least one elastic element; each tensioning device connects between two neighbouring corner elements ; wherein a line of force exerted by each tensioning device is parallel to the axis of its corresponding reception profile , and optionally the line of force exerted by each tensioning device is uniaxial with the axis of its corresponding reception profile , each tensioning device is connected to the edge element in which it is received; wherein each tensioning device is not attached to its two neighbouring corner elements but rather simply abuts against and pushes against the guiding profiles of the two neighbouring corner elements .
A tool for the assembly of pipes , wherein the tool comprises at least one main leg , wherein a horizontal rotator is arranged at an upper end of the main leg , wherein a pipe receptacle is fastened to the horizontal rotator , so that the pipe receptacle is rotatably arranged relative to the main leg , characterized in that the tool comprises two feet , wherein the feet each have an insertion shaft for one prong of a fork .
A method for manufacturing a solar cell, comprising a step of applying a paste-like electrode agent containing a conductive material onto an antireflection film formed on a light-receiving surface side of a semiconductor substrate having at least a pn junction, and an electrode firing step, including local heat treatment by irradiating a laser beam onto only the electrode agent-applied portion to heat that portion, such that at least a part of the conductive material is fired but not so as to achieve fire-through thereof through the antireflection film , and overall heat treatment by heating the overall semiconductor substrate at a temperature below 800°C whereby the conductive material is fired to some extent and fired through the antireflection film , wherein the electrode agent-applied portion is completely fired and the conductive material penetrates through the antireflective film to form an electrode in ohmic contact with the semiconductor substrate by the local heat treatment and the overall heat treatment.
A chromatography lab system comprising a cooling compartment comprising at least two holder positions arranged to hold both fraction collector devices and sample containers in the same said compartment, the cooling compartment further comprising an identifying device arranged to identify the fraction collector devices such that fractions from the chromatography are collected only in the fraction collector devices , wherein the cooling compartment comprises a tray comprising the at least two holder positions , and wherein the cooling compartment comprises at least one port provided through a front wall of said cooling compartment where a sample tube can enter the cooling compartment .
A cooling device for cooling electronic components mounted on a circuit board , the device comprising: a hollow body defining a coolant transport circuit for circulating coolant fluid there thorough, the hollow body comprising a plurality of flattened regions linked by duct regions , wherein the flattened regions and duct regions are formed as continuous regions of the body , and wherein each flattened region is configured to align with one or more electronic components when the body is secured adjacent to the circuit board for transferring heat away from the respective one or more electronic components, characterised in that one or more of the flattened regions has substantially the same cross-sectional area as one or more of the duct regions . a hollow body defining a coolant transport circuit for circulating coolant fluid there thorough, the hollow body comprising a plurality of flattened regions linked by duct regions , wherein the flattened regions and duct regions are formed as continuous regions of the body , and wherein each flattened region is configured to align with one or more electronic components when the body is secured adjacent to the circuit board for transferring heat away from the respective one or more electronic components, characterised in that one or more of the flattened regions has substantially the same cross-sectional area as one or more of the duct regions .
A cooling device comprising a refrigeration compartment that is defined by thermally-insulated walls ; a housing in extended form that is provided on an inner lining of the refrigeration compartment ; a support plate ; and LED units arranged along the housing on a lateral surface of the support plate , the position of the support plate in the housing is configured in an angular manner such that the LED units provide indirect illumination in the refrigeration compartment , characterized in that the support plate is mounted to a diffuser panel such that the support plate is mounted into the housing together with the diffuser panel so as to extend into the housing .
A cooling structure of an engine having a cylinder block , a plurality of cylinder bores formed in the cylinder block , and a cylinder head , the cooling structure comprising: a water jacket configured to surround the plurality of cylinder bores ; and a water jacket spacer accommodated in the water jacket and having a peripheral wall , wherein the peripheral wall is configured to form, inside the water jacket , an inner channel located inside the peripheral wall and an outer channel located outside the peripheral wall , wherein a width of the inner channel is less than a width of the outer channel , wherein communicating holes , which are configured to communicate the inner channel with the outer channel , are formed in the peripheral wall at locations between adjacent cylinder bores , respectively, and wherein inter-bore channels are provided to parts of the cylinder block between the adjacent cylinder bores , respectively, characterized in that a vertical length of the communicating hole is greater than a lateral width of the communicating hole , a lower part of an inner circumferential surface of the communicating hole is below an inlet of the inter-bore channel , a part of the inner circumferential surface of each communicating hole on a cylinder head side inclines toward the inlet of the corresponding inter-bore channel , and a part of the inner circumferential surface of each communicating hole on an opposite side of the cylinder head inclines toward a location below the inlet of the corresponding inter-bore channel . a water jacket configured to surround the plurality of cylinder bores ; and a water jacket spacer accommodated in the water jacket and having a peripheral wall , wherein the peripheral wall is configured to form, inside the water jacket , an inner channel located inside the peripheral wall and an outer channel located outside the peripheral wall , wherein a width of the inner channel is less than a width of the outer channel , wherein communicating holes , which are configured to communicate the inner channel with the outer channel , are formed in the peripheral wall at locations between adjacent cylinder bores , respectively, and wherein inter-bore channels are provided to parts of the cylinder block between the adjacent cylinder bores , respectively, characterized in that a vertical length of the communicating hole is greater than a lateral width of the communicating hole , a lower part of an inner circumferential surface of the communicating hole is below an inlet of the inter-bore channel , a part of the inner circumferential surface of each communicating hole on a cylinder head side inclines toward the inlet of the corresponding inter-bore channel , and a part of the inner circumferential surface of each communicating hole on an opposite side of the cylinder head inclines toward a location below the inlet of the corresponding inter-bore channel .
A method for separating and quantifying compounds contained in a hydrocarbon mixture resulting from the refining of crude oil comprising the following steps: a) separation of the compounds contained in the hydrocarbon mixture by supercritical phase chromatography; b) quantification of each compound using a charged aerosol detector. a) separation of the compounds contained in the hydrocarbon mixture by supercritical phase chromatography; b) quantification of each compound using a charged aerosol detector.
A compound of Formula (II): which is (1 S ,4a R ,6a S ,7 R ,8 R ,10a R ,10b R ,12a R ,14 R , 15R )-15-[[2-amino-2,3,3-trimethylbutyl]oxy]-8-[(1 R )-1,2-dimethylpropyl]-14-[5-(4-pyridinyl)- 1H -1,2,4-triazol-1-yl]-1,6,6a,7,8,9,10,10a,10b,11,12,12a-dodecahydro-1,6a,8,10a-tetramethyl- 4H -1,4a-propano- 2H- phenanthro[1,2-c]pyran-7-carboxylic acid, or a pharmaceutically acceptable salt or hydrate thereof, for use in a method of treating a fungal osteo-articular infection in a subject in need thereof, wherein the fungal osteo-articular infection is osteomyelitis, spondylodiscitis, or arthritis. or a pharmaceutically acceptable salt or hydrate thereof, for use in a method of treating a fungal osteo-articular infection in a subject in need thereof, wherein the fungal osteo-articular infection is osteomyelitis, spondylodiscitis, or arthritis.
A system for implanting a heart valve, comprising: a radially self-expandable tubular body having an inflow end and an outflow end, and a preformed groove disposed at an outer surface of the tubular body the preformed groove extending at least partially around the tubular body and having a circumferential opening facing radially outward of the tubular body; and a valve disposed within and attached to the tubular body , wherein the system further includes a trapping member configured to be moved into the preformed groove to form at least a partial loop around the tubular body characterised in that the tubular body has a decorrelation portion , that the preformed groove is disposed between the decorrelation portion and the outflow end, and in that the decorrelation portion is configured to dissociate axial and radial movements between the inflow end of the tubular body and the outflow end of the tubular body. a radially self-expandable tubular body having an inflow end and an outflow end, and a preformed groove disposed at an outer surface of the tubular body the preformed groove extending at least partially around the tubular body and having a circumferential opening facing radially outward of the tubular body; and a valve disposed within and attached to the tubular body , wherein the system further includes a trapping member configured to be moved into the preformed groove to form at least a partial loop around the tubular body characterised in that the tubular body has a decorrelation portion , that the preformed groove is disposed between the decorrelation portion and the outflow end, and in that the decorrelation portion is configured to dissociate axial and radial movements between the inflow end of the tubular body and the outflow end of the tubular body.
A conduit clip arrangement comprising a conduit having a generally cylindrical shape with a through axis and a grooved outer form , wherein the grooved armored sheath of the conduit has a circumferential radially external surface with a number of axially adjacent circular corrugations and is lengthwise split parallel to the through axis , further comprising a conduit clip , said conduit clip having a ring member adapted to be placed around the conduit , said ring member having a through axis , side walls, a circumferential radially internal surface and a circumferential radially external surface , said ring member comprises semi-circular ring portions connected by a living hinge , wherein said circumferentially external surface has a circumferentially smooth envelope, that each side wall of said ring member is provided with a clamping means configured to cooperate with an attachment member , and that said circumferential radially internal surface has at least one upstanding projection configured to engage a grove in the conduit sheath when placed around it., wherein said arrangement further comprises an attachment member , said attachment member and the ring member being arranged to clamp together, characterized in that said clamping means is a circumferential groove and said attachment member has a mounting section which provides abutments to engage in the circumferential groove for clamping the attachment member to the ring member .
Method for the preparation of highly pure iridium(III) chloride hydrate, comprising the steps of: Providing at least one material selected from the group consisting of solid H 2 [IrCl 6 ] hydrate, aqueous at least 1 wt.% H 2 [IrCl 6 ] solution, and solid IrCl 4 hydrate; adding, to the at least one material provided in step , at least one monohydroxy compound selected from the group consisting of methoxy ethanol, ethoxy ethanol, methoxy propanol, methanol, ethanol, n-propanol, iso-propanol, 1-butanol, 2-butanol, and 2-methyl-1-propanol at a molar ratio of Ir(IV) : monohydroxy compound = 1 : 0.6 to 1,000, and allowing this to react in a temperature range of 20 to 120°C, followed by removing volatile components from the reaction mixture thus formed, whereby the term "highly pure iridium(III) chloride hydrate" shall denote a solid iridium(III) chloride hydrate of formula IrCl 3 · x H 2 O · y HCl whereby x = 1.5 to 5 and y = 0 to 1, and whereby the iridium contained therein is ≥ 99.9% Ir(III) and ≤ 0.1% Ir(V). Providing at least one material selected from the group consisting of solid H 2 [IrCl 6 ] hydrate, aqueous at least 1 wt.% H 2 [IrCl 6 ] solution, and solid IrCl 4 hydrate; adding, to the at least one material provided in step , at least one monohydroxy compound selected from the group consisting of methoxy ethanol, ethoxy ethanol, methoxy propanol, methanol, ethanol, n-propanol, iso-propanol, 1-butanol, 2-butanol, and 2-methyl-1-propanol at a molar ratio of Ir(IV) : monohydroxy compound = 1 : 0.6 to 1,000, and allowing this to react in a temperature range of 20 to 120°C, followed by removing volatile components from the reaction mixture thus formed, whereby the term "highly pure iridium(III) chloride hydrate" shall denote a solid iridium(III) chloride hydrate of formula IrCl 3 · x H 2 O · y HCl whereby x = 1.5 to 5 and y = 0 to 1, and whereby the iridium contained therein is ≥ 99.9% Ir(III) and ≤ 0.1% Ir(V).