mhurhangee/ep-ind-claims huggingface dataset:
A surgical robot system, comprising: - a camera; - a robot having a robot base, a robot arm coupled to the robot base, and an end-effector coupled to the robot arm; - a test tool having a notch; and - an instrument under test having a groove, - wherein the camera is configured to track the position of the test tool and of the instrument under test, and - wherein the groove of the instrument is configured to engage the notch of the test tool in order to check an alignment accuracy of the instrument under test based on position tracking of both the test tool and the instrument under test by the camera, wherein the alignment accuracy indicates the overlap between theoretical and actual position of the instrument under test. - a camera; - a robot having a robot base, a robot arm coupled to the robot base, and an end-effector coupled to the robot arm; - a test tool having a notch; and - an instrument under test having a groove, - wherein the camera is configured to track the position of the test tool and of the instrument under test, and - wherein the groove of the instrument is configured to engage the notch of the test tool in order to check an alignment accuracy of the instrument under test based on position tracking of both the test tool and the instrument under test by the camera, wherein the alignment accuracy indicates the overlap between theoretical and actual position of the instrument under test.
An integrated circuit, comprising: a first logic block coupled between a first power supply terminal and a second power supply terminal, wherein the first logic block includes: a first scan chain; a configurable defect coupled to a scan output node of the first scan chain, the configurable defect comprising an inverter (302, 402, 502, 602, 702) and a conductive element (304, 404, 504, 604, 704) coupled between the scan output node and the first or the second power supply terminal (VDD, VSS), wherein the configurable defect is configured to, during a quiescent current testing mode, place a predetermined logic state on a logic node between the inverter (302, 402, 502, 602, 702) and the conductive element (304, 404, 504, 604, 703) that causes a detectable current to flow through the conductive element (304, 404, 504, 604, 703); and a current measurement circuit configured to detect the detectable current to determine whether the detectable current is expected given an output from the scan output node. a first scan chain; a configurable defect coupled to a scan output node of the first scan chain, the configurable defect comprising an inverter (302, 402, 502, 602, 702) and a conductive element (304, 404, 504, 604, 704) coupled between the scan output node and the first or the second power supply terminal (VDD, VSS), wherein the configurable defect is configured to, during a quiescent current testing mode, place a predetermined logic state on a logic node between the inverter (302, 402, 502, 602, 702) and the conductive element (304, 404, 504, 604, 703) that causes a detectable current to flow through the conductive element (304, 404, 504, 604, 703); and a current measurement circuit configured to detect the detectable current to determine whether the detectable current is expected given an output from the scan output node.
A random grating based compressive sensing wideband hyperspectral imaging system, comprising a front imaging system, an optical splitting system, two or more branches, and a computer; wherein each of the branches comprises an exit pupil transformation system (3,7,13), a random grating (4,8,14), and a photodetector system (5,9,16); the front imaging system and the optical splitting system are successively arranged along an incident light beam; the optical splitting system splits a wideband light beam into two or more split spectral light beam branches with continuous spectra; the exit pupil transformation system (3,7,13), the random grating (4,8,14), and the photodetector system (5,9,16) are successively arranged along each branch; each of the photodetector system (5,9,16) is connected with the computer; the exit pupil transformation system (3,7,13) of each branch is situated on an imaging plane of the object on the branch in route of the front imaging system; the random grating (4,8,14) of each branch is situated on an imaging plane of an exit pupil of the front imaging system in route of the exit pupil system of the branch; and the photodetector system (5,9,16) of each branch is behind the random grating (4,8,14) of the branch, characterized in that the optical splitting system is a dichroic beam combiner (2,12) and wherein the random grating (4,8,14) and the photodetectors (5,9,16) are selected with different parameters for different spectra on each of the branches. an exit pupil transformation system (3,7,13), a random grating (4,8,14), and a photodetector system (5,9,16);
A method for wirelessly authorising a handheld communication device to interact with a pump control system comprising a pump unit, said pump unit comprising a signal generator, and a validation server, and wherein the handheld communication device is provided with a detector unit (12, 13, 14) for detecting signals from the signal generator, wherein the method comprises the steps of: a) the pump control system generating and sending an authorisation signal sequence, b) the handheld communication device detecting the authorisation signal sequence, c) the handheld communication device transmits a handshake signal based on the detected authorisation signal sequence to the validation server, which is in communicative contact with pump unit, and d) the pump control system authorising the handheld communication device to interact with the pump control system, if the handshake signal matches a handshake pattern associated with the authorisation signal sequence. a) the pump control system generating and sending an authorisation signal sequence, b) the handheld communication device detecting the authorisation signal sequence, c) the handheld communication device transmits a handshake signal based on the detected authorisation signal sequence to the validation server, which is in communicative contact with pump unit, and d) the pump control system authorising the handheld communication device to interact with the pump control system, if the handshake signal matches a handshake pattern associated with the authorisation signal sequence.
An illumination module for illuminating a portion of a smart card, said illumination module comprising: - A substrate layer; - One or more lighting elements positioned on said substrate layer and configured to emit light parallel to said substrate layer, for instance one or more LEDs; and - A light guiding body applied to said substrate layer and comprising a light guiding material; characterized in that: said illumination module further comprises a reflective layer configured to reflect the light emitted by said lighting elements outside said light guiding material and to re-direct it inside said light guiding material; and said light guiding body further comprises a pattern layer applied to said light guiding material and being configured to refract said light parallel to said substrate layer and deviate it along a direction perpendicular to said substrate layer, so as to obtain an emitted light, wherein said pattern layer comprises a series of protrusions distributed so as to make the brightness of said emitted light uniform. - A substrate layer; - One or more lighting elements positioned on said substrate layer and configured to emit light parallel to said substrate layer, for instance one or more LEDs; and - A light guiding body applied to said substrate layer and comprising a light guiding material; said illumination module further comprises a reflective layer configured to reflect the light emitted by said lighting elements outside said light guiding material and to re-direct it inside said light guiding material; and said light guiding body further comprises a pattern layer applied to said light guiding material and being configured to refract said light parallel to said substrate layer and deviate it along a direction perpendicular to said substrate layer, so as to obtain an emitted light, wherein said pattern layer comprises a series of protrusions distributed so as to make the brightness of said emitted light uniform.
A body for a vehicle, in particular a rail vehicle, this body comprising: - a floor support structure, - at least one side wall; - a shim arranged at the junction between the support structure and the side wall, - a visible covering layer arranged on the support structure, - a finishing cap covering a border of the covering layer, characterized in that the cap is fastened, preferably removably, to the side wall and defines, with the shim, a gap for receiving a border of the covering layer, in that the relative position of the cap with respect to the shim is adjustable and in that the width of the gap varies based on the relative position of the cap with respect to the shim. - a floor support structure, - at least one side wall; - a shim arranged at the junction between the support structure and the side wall, - a visible covering layer arranged on the support structure, - a finishing cap covering a border of the covering layer,
A method of producing monochlorourea or modified monochlorourea, the method comprising the step of adding a chlorine source at a rate of between 0.5 molar equivalents per hour and 20 equivalents per hour to an aqueous solution of urea or modified urea wherein the pH of the solution is between 2 and less than 5, the pH of the chlorine source is between 5 and 13, the molar ratio of urea or modified urea to chlorine source is between 1.5:1 and 1:5, and the conversion of urea or modified urea to the monochlorourea or modified monochlorourea is greater than 20% on a dry molar basis.
A liquid sample measurement method of measuring the amounts of components using a biosensor in which a liquid is introduced and then components contained in said liquid are subjected to oxidation-reduction using an oxidoreductase, wherein the liquid sample measurement method comprises: a first current value measurement step detecting, as a first current value, an oxidation-reduction current that is generated by the oxidation-reduction when a first voltage is applied to a first electrode pair (21, 22) of the biosensor; a second current value measurement step detecting, as a second current value, a current that is generated when a second voltage is applied to a second electrode pair (23, 24) of the biosensor, while the first voltage is maintained at the first electrode pair (21, 22); a third current value measurement step detecting, as a third current value, a current that is generated when a third voltage is applied to a third electrode pair (23, 27) of the biosensor, while the first voltage is maintained at the first electrode pair (21, 22); and a calculation step for calculating the amounts of a first component and a second component contained in the liquid as well as a value equivalent to the temperature of the biosensor using a set of the first current value, the second current value, and the third current value generated when the first voltage, the second voltage, and the third voltage were applied. a first current value measurement step detecting, as a first current value, an oxidation-reduction current that is generated by the oxidation-reduction when a first voltage is applied to a first electrode pair (21, 22) of the biosensor; a second current value measurement step detecting, as a second current value, a current that is generated when a second voltage is applied to a second electrode pair (23, 24) of the biosensor, while the first voltage is maintained at the first electrode pair (21, 22); a third current value measurement step detecting, as a third current value, a current that is generated when a third voltage is applied to a third electrode pair (23, 27) of the biosensor, while the first voltage is maintained at the first electrode pair (21, 22); and a calculation step for calculating the amounts of a first component and a second component contained in the liquid as well as a value equivalent to the temperature of the biosensor using a set of the first current value, the second current value, and the third current value generated when the first voltage, the second voltage, and the third voltage were applied.
A gas turbine engine system comprising: a fan assembly; a low pressure compressor; a low pressure turbine coupled to the low pressure compressor, wherein a primary flowpath (F p) is defined through the fan assembly, the low pressure compressor and the low pressure turbine; a plurality of engine cores (30-1 to 30-n) including a first engine core and a second engine core, the engine cores positioned such that each active engine core is operably positioned between the low pressure compressor and the low pressure turbine along the primary flowpath, each engine core including: a high pressure compressor; a combustor downstream from the high pressure compressor; and a high pressure turbine downstream from the combustor; a control assembly configured to control operation of the plurality of engine cores such that in a first operational mode the first and the second engine cores are active to generate combustion products, and in a second operational mode the first engine core is active to generate combustion products while the second engine core is idle; an exhaust collector defining a substantially toroidal interior volume, wherein exhaust from all active engine cores is delivered to the exhaust collector; wherein the plurality of engine cores deliver combustion products to the exhaust collector in a tangential orientation to produce an annular exhaust mixing flow. a fan assembly; a low pressure compressor; a low pressure turbine coupled to the low pressure compressor, wherein a primary flowpath (F p) is defined through the fan assembly, the low pressure compressor and the low pressure turbine; a plurality of engine cores (30-1 to 30-n) including a first engine core and a second engine core, the engine cores positioned such that each active engine core is operably positioned between the low pressure compressor and the low pressure turbine along the primary flowpath, each engine core including: a high pressure compressor; a combustor downstream from the high pressure compressor; and a high pressure turbine downstream from the combustor; a high pressure compressor; a combustor downstream from the high pressure compressor; and a high pressure turbine downstream from the combustor; a control assembly configured to control operation of the plurality of engine cores such that in a first operational mode the first and the second engine cores are active to generate combustion products, and in a second operational mode the first engine core is active to generate combustion products while the second engine core is idle; an exhaust collector defining a substantially toroidal interior volume, wherein exhaust from all active engine cores is delivered to the exhaust collector; wherein the plurality of engine cores deliver combustion products to the exhaust collector in a tangential orientation to produce an annular exhaust mixing flow.
A dust collector (100, 300) for a vacuum cleaner comprising: a dust container; a centrifugal separator installed inside the dust container and configured to separate dust from air; a filter unit installed at a discharge hole of the dust container and provided with a filter member; and a dust-removing device (100a, 300a) configured to dislodge dust from the filter member, wherein the dust-removing device (100a, 300a) comprises a dust removal unit (150, 350) and a drive unit (110, 310) configured to provide driving power to the dust removal unit (150, 350), wherein the drive unit (110, 310) is positioned at a side of the dust removal unit (150, 350) and arranged to not overlap with the discharge hole, characterised in that the dust removal unit (150, 350) includes a dust-removing member (160,170) having dust-removing projections extending from the dust-removing member (160,170) and facing the filter member, wherein the dust-removing projections are configured to dislodge dust from the filter unit while moving forth and back to come in contact with the filter member. a dust container; a centrifugal separator installed inside the dust container and configured to separate dust from air; a filter unit installed at a discharge hole of the dust container and provided with a filter member; and a dust-removing device (100a, 300a) configured to dislodge dust from the filter member, wherein the dust-removing device (100a, 300a) comprises a dust removal unit (150, 350) and a drive unit (110, 310) configured to provide driving power to the dust removal unit (150, 350), wherein the drive unit (110, 310) is positioned at a side of the dust removal unit (150, 350) and arranged to not overlap with the discharge hole, characterised in that the dust removal unit (150, 350) includes a dust-removing member (160,170) having dust-removing projections extending from the dust-removing member (160,170) and facing the filter member, wherein the dust-removing projections are configured to dislodge dust from the filter unit while moving forth and back to come in contact with the filter member.
A method of manufacturing an electronic part, which includes processing a workpiece fixed onto a support, the method comprising: fixing the workpiece by arranging at least one heat-peelable layer between the support and the workpiece; processing a surface of the fixed workpiece on an opposite side to the heat-peelable layer; and separating the workpiece from the support by heating the heat-peelable layer after the processing, wherein the fixing the workpiece comprises: arranging a pressure-sensitive adhesive tape between the support and the workpiece; forming a laminate A including the support and the heat-peelable layer; forming a laminate B including the workpiece and the pressure-sensitive adhesive tape; and bonding the heat-peelable layer of the laminate A and the pressure-sensitive adhesive tape of the laminate B to each other. fixing the workpiece by arranging at least one heat-peelable layer between the support and the workpiece; processing a surface of the fixed workpiece on an opposite side to the heat-peelable layer; and separating the workpiece from the support by heating the heat-peelable layer after the processing, wherein the fixing the workpiece comprises: arranging a pressure-sensitive adhesive tape between the support and the workpiece; forming a laminate A including the support and the heat-peelable layer; forming a laminate B including the workpiece and the pressure-sensitive adhesive tape; and bonding the heat-peelable layer of the laminate A and the pressure-sensitive adhesive tape of the laminate B to each other. arranging a pressure-sensitive adhesive tape between the support and the workpiece; forming a laminate A including the support and the heat-peelable layer; forming a laminate B including the workpiece and the pressure-sensitive adhesive tape; and bonding the heat-peelable layer of the laminate A and the pressure-sensitive adhesive tape of the laminate B to each other.
Scales for automatically weighing strand-shaped goods to be weighed, having a supply belt and a removal belt for transporting the goods to be weighed and having a weight transducer that is arranged between the supply belt and the removal belt and is configured in the form of a roller, and an evaluation apparatus having an integrator, which integrates the signal of the weight transducer with respect to time to determine the total weight of the goods to be weighed, characterized in that the evaluation apparatus has a differentiator that differentiates the signal of the weight transducer twice with respect to time and the evaluation apparatus automatically determines the starting time and the stop time of a measurement on the basis of a zero point of the second derivative of the weight signal.
A chain link for an energy guiding chain for guiding cables, lines and the like, wherein the chain link has hinge members for hinged connection to further chain links of the same structure for providing the energy guiding chain, wherein the chain link has two laterally mutually spaced chain plates having narrow sides delimiting same and extending in the longitudinal direction of the chain link, and at least one transverse bar connecting the chain plates together, wherein at least one transverse bar is adapted to be pivotable forming a hinge connection in relation to at least one chain plate and can be transferred by pivotal movement into a closed position of connecting the chain plates together and into an open position at least partially opening the intermediate space between the chain plates, wherein at least one pivotable end region of the transverse bar can be latchingly fixed to the chain plate hingedly connected to the transverse bar, and wherein the hinge connection between the transverse bar and the chain plate has a substantially cylindrical hinge pin of the radius R1 over at least a part of the periphery of the pin at one of the corresponding components of the transverse bar and the chain link and a substantially cylindrical pin receiving means at the other of the two corresponding components (5, 3), and wherein the hinge pin has at least one recess over a portion of its length at the pin side that is remote from the narrow sides, which recess is set back from the cylindrical surface of the pin, and the pin receiving means has at least one latching nose which projects from the cylindrical region of the pin receiving means of the radius R1 and engages into the recess, characterised in that the hinge pin is provided with the at least one recess only over a portion of its length at the pin side that is remote from the narrow sides, which recess is set back from the cylindrical surface of the pin, and that the hinge pin is of a cylindrical configuration in another portion which cooperates with the pin receiving means.
A reciprocating piston pump having a piston, a piston rod and inlet and outlet check valves (32, 42), said piston having first and second ends, one of said check valves being located in said first end and the other of said check valves in said second end; a plurality of inlet passages connecting said one check valve with said second end such as to form respective individual flow paths; characterized by a plurality of outlet passages connecting said other check valve with said first end such as to form respective individual flow paths, wherein said inlet passages and said outlet passages are circumferentially spaced in an alternating pattern.
A vacuum insulation assembly, comprising: a front panel and a rear panel, the front panel being operably coupled with the rear panel; an aperture defined by one of the front panel and the rear panel; a vacuum port positioned within the aperture; tubing, wherein a first end and a second end of the tubing are both coupled with the vacuum port, and wherein the tubing is made of porous material, characterized in that the vacuum insulation assembly further comprises: a plurality of clips operably coupled with an inner surface of the rear panel, wherein the plurality of clips are positioned in a predetermined pattern; and wherein the tubing is coupled with the plurality of clips. a front panel and a rear panel, the front panel being operably coupled with the rear panel; an aperture defined by one of the front panel and the rear panel; a vacuum port positioned within the aperture; tubing, wherein a first end and a second end of the tubing are both coupled with the vacuum port, and wherein the tubing is made of porous material, characterized in that the vacuum insulation assembly further comprises: a plurality of clips operably coupled with an inner surface of the rear panel, wherein the plurality of clips are positioned in a predetermined pattern; and wherein the tubing is coupled with the plurality of clips. a plurality of clips operably coupled with an inner surface of the rear panel, wherein the plurality of clips are positioned in a predetermined pattern; and wherein the tubing is coupled with the plurality of clips.