mhurhangee/ep-ind-claims huggingface dataset:
A device comprising: a microelectromechanical systems (MEMS) device; a die supporting the MEMS device on a first side of the die; an isolator with a first side attached to the first side of the die, wherein the isolator includes isolation structures, and wherein the isolation structures include tines formed through a thickness of the isolator; a package attached to the first side of the isolator; and an electrically conductive attachment device attaching the die to the isolator and attaching the isolator to the package; wherein the isolation structures serve to reduce the amount of stress conveyed to the die from the package. a microelectromechanical systems (MEMS) device; a die supporting the MEMS device on a first side of the die; an isolator with a first side attached to the first side of the die, wherein the isolator includes isolation structures, and wherein the isolation structures include tines formed through a thickness of the isolator; a package attached to the first side of the isolator; and an electrically conductive attachment device attaching the die to the isolator and attaching the isolator to the package; wherein the isolation structures serve to reduce the amount of stress conveyed to the die from the package.
A flow rate measurement device configured to measure a flow rate of purge gas in a purge device configured to supply the purge gas to a container including a bottom lid configured to be attached to and detached from a container body, the flow rate measurement device comprising: a base on which a flow-rate measurer is mounted; an engaged part provided in the base and configured to be engaged with the bottom lid; and a flow passage through which the purge gas injected from an injection port of the bottom lid is circulated to the flow-rate measurer when the engaged part is engaged with the bottom lid. a base on which a flow-rate measurer is mounted; an engaged part provided in the base and configured to be engaged with the bottom lid; and a flow passage through which the purge gas injected from an injection port of the bottom lid is circulated to the flow-rate measurer when the engaged part is engaged with the bottom lid.
An optical connector comprising: a fiber optic receptacle having a first end and a second end opposite the first end, the receptacle having a receptacle housing defining an interior cavity opening through the first end and the second end, the receptacle comprising an alignment feature disposed within the interior cavity and an alignment sleeve insert adjacent the first end including at least one alignment sleeve for receiving at least one receptacle ferrule inserted through the second end, the alignment sleeve insert defining a first complementary alignment feature for engaging the alignment feature to ensure that the alignment sleeve insert is positioned at a predetermined orientation relative to the receptacle, the alignment sleeve insert further including an alignment sleeve holder defining a relatively flat, disc-shaped portion for seating against an inner wall of the receptacle housing and a protruding portion defining one or more openings for receiving the at least one alignment sleeve; a fiber optic plug having at least one plug ferrule that is received within the alignment sleeve when the plug is mated with the receptacle, the plug defining a second complementary alignment feature for engaging the alignment feature to ensure that the plug is positioned at a predetermined orientation relative to the receptacle. the receptacle having a receptacle housing defining an interior cavity opening through the first end and the second end, the receptacle comprising an alignment feature disposed within the interior cavity and an alignment sleeve insert adjacent the first end including at least one alignment sleeve for receiving at least one receptacle ferrule inserted through the second end, the alignment sleeve insert defining a first complementary alignment feature for engaging the alignment feature to ensure that the alignment sleeve insert is positioned at a predetermined orientation relative to the receptacle, the alignment sleeve insert further including an alignment sleeve holder defining a relatively flat, disc-shaped portion for seating against an inner wall of the receptacle housing and a protruding portion defining one or more openings for receiving the at least one alignment sleeve;
Mounting arrangement for a vibration-sensitive component, having a holder for the component and a decoupling part which is located between the component and the holder, characterized in that the component is an ultrasonic transducer, which can be integrated into a bumper of a vehicle by means of the holder and the decoupling part, wherein a detection surface of the ultrasonic transducer ends as far as possible level with the bumper and the decoupling part, and the decoupling part has a latching means with at least one latching lug, which can each be latched into a corresponding cut-out in the holder, and the decoupling part is a decoupling ring (11; 14) matched to the round geometry of the component, which is guided into a predefined area in the longitudinal extent of the component, and the latching means are distributed over its circumference.
An amorphous core transformer that stores a core coil assembly, the core coil assembly comprising: an amorphous core (5a, 5b, 5c, 5d) composed of amorphous magnetic strips (5a-1, 5a-2,..., 5a-41); and a coil (4a, 4b, 4c) for insertion of the amorphous core (5a, 5b, 5c, 5d), characterised in that the amorphous core (5a, 5b, 5c, 5d) is constructed such that a plurality of kinds of the amorphous magnetic strips (5a-1, 5a-2,..., 5a-41) having different widths are arranged in laterally abutting relation and laminated, and the amorphous magnetic strips (5a-1, 5a-2,..., 5a-41) are alternated in arrangement for lamination between adjacent layers of the laminate so that abutting surfaces (T1, T2) of the arranged and laminated amorphous magnetic strips (5a-1, 5a-2,..., 5a-41) in adjacent layers of the laminate are displaced laterally with respect to one another. an amorphous core (5a, 5b, 5c, 5d) composed of amorphous magnetic strips (5a-1, 5a-2,..., 5a-41); and a coil (4a, 4b, 4c) for insertion of the amorphous core (5a, 5b, 5c, 5d),
A climbing machine, comprising a machine body, a mechanical arm, and at least two ropes, wherein one end of each rope is connected to a suspension mechanism, and the other end of the rope is connected to the machine body; the suspension mechanism is connected to or disengaged from an object structure, and the length of the rope between the suspension mechanism and the machine body is variable; through dragging or pulling of the rope, the suspension mechanism enables the machine body to move on the object structure; the mechanical arm has one or more degrees of freedom; a gripping mechanism is disposed at a front end of the mechanical arm, and a rear end of the mechanical arm is mounted on the machine body; the gripping mechanism has a spatial movement capability and/or an angle adjustment capability when driven by the mechanical arm, and is capable of gripping and moving any suspension mechanism and being disengaged from a gripped suspension mechanism, wherein one or more damping mechanisms are disposed on the machine body, and the damping mechanism is capable of generating a damping force by using an air flow, characterized in that a shaking state detection apparatus is disposed on the machine body, and the shaking state detection apparatus is capable of detecting a shaking state of the machine body. suspension mechanism is connected to or disengaged from an object structure, and the length of the rope between the suspension mechanism and the machine body is variable; through dragging or pulling of the rope, the suspension mechanism enables the machine body to move on the object structure; the mechanical arm has one or more degrees of freedom; a gripping mechanism is disposed at a front end of the mechanical arm, and a rear end of the mechanical arm is mounted on the machine body; the gripping mechanism has a spatial movement capability and/or an angle adjustment capability when driven by the mechanical arm, and is capable of gripping and moving any suspension mechanism and being disengaged from a gripped suspension mechanism, wherein one or more damping mechanisms are disposed on the machine body, and the damping mechanism is capable of generating a damping force by using an air flow, characterized in that a shaking state detection apparatus is disposed on the machine body, and the shaking state detection apparatus is capable of detecting a shaking state of the machine body.
An electronic device configured to switchover power supplied from a primary source to an alternate source to maintain continuity of power supplied to a load bus, wherein the electronic device comprises one or more processors (38,40,42) configured to: identify availability of the alternate source using source monitoring in order to measure and calculate a tracking frequency for controlling a variable sampling interval of the one or more processors (38,40,42); and obtain signal samples having associated time stamps from the primary source, the alternate source, and the load bus; characterised in that the one or more processors (38, 40, 42) are further configured to store load bus signal samples and associated time stamps of the load bus into a variable length buffer; perform a dual buffer sampling interval transfer by calculating, using an adaptive resampling algorithm, a new time stamp for transferring a sample from the variable length buffer to a fixed length buffer to estimate a new sample value at the calculated new time stamp; store the new sample value and associated new time stamp into the fixed length buffer; determine a set of attributes from samples of the alternate source using the tracking frequency and fixed length buffer samples of a load bus supply, wherein the set of attributes comprise a magnitude, an angle, a frequency, a slip, an acceleration, or any combination thereof; and calculate supervising conditions to execute a source switchover signal when the primary source is unavailable based at least in part on comparing the set of load bus attributes to alternate source attributes at an estimated instance of switchover. identify availability of the alternate source using source monitoring in order to measure and calculate a tracking frequency for controlling a variable sampling interval of the one or more processors (38,40,42); and obtain signal samples having associated time stamps from the primary source, the alternate source, and the load bus; characterised in that the one or more processors (38, 40, 42) are further configured to store load bus signal samples and associated time stamps of the load bus into a variable length buffer; perform a dual buffer sampling interval transfer by calculating, using an adaptive resampling algorithm, a new time stamp for transferring a sample from the variable length buffer to a fixed length buffer to estimate a new sample value at the calculated new time stamp; store the new sample value and associated new time stamp into the fixed length buffer; determine a set of attributes from samples of the alternate source using the tracking frequency and fixed length buffer samples of a load bus supply, wherein the set of attributes comprise a magnitude, an angle, a frequency, a slip, an acceleration, or any combination thereof; and calculate supervising conditions to execute a source switchover signal when the primary source is unavailable based at least in part on comparing the set of load bus attributes to alternate source attributes at an estimated instance of switchover.
A sample testing device for testing for the presence of a component of interest in a liquid sample, the device comprising: (a) at least one capillary pathway which has an upstream end and a downstream end and which incorporates a reagent system capable of causing agglutination with said component to be detected (the test capillary); (b) preferably, but optionally, at least one capillary pathway having an upstream end and a downstream end (the control capillary); (c) a sampling region to which the liquid sample is applied and from which the sample is able to enter the upstream ends of the test capillary(s) and if present the control capillary(s); (d) a power source; (e) detection arrangements electrically associated with said power source for detecting the presence of liquid at a downstream region of said testing capillary(s) and if present the control capillary(s); (f) display means operated by said power source for indicating the result of the test; and (g) signal processing means associated with the power source, detection arrangement and display means for evaluating the result of the test and providing said result on the display means, wherein the signal processing means comprises a timer adapted upon activation to set a pre-determined time period for the sample to reach the detection arrangement, and wherein detection for the presence or absence of sample at the detection arrangement is made within the pre-determined time period such that presence of the sample produces a negative result and absence of the sample produces a positive result. (a) at least one capillary pathway which has an upstream end and a downstream end and which incorporates a reagent system capable of causing agglutination with said component to be detected (the test capillary); (b) preferably, but optionally, at least one capillary pathway having an upstream end and a downstream end (the control capillary); (c) a sampling region to which the liquid sample is applied and from which the sample is able to enter the upstream ends of the test capillary(s) and if present the control capillary(s); (d) a power source; (e) detection arrangements electrically associated with said power source for detecting the presence of liquid at a downstream region of said testing capillary(s) and if present the control capillary(s); (f) display means operated by said power source for indicating the result of the test; and (g) signal processing means associated with the power source, detection arrangement and display means for evaluating the result of the test and providing said result on the display means,
An imaging system for imaging product in a product flow, the system comprising: an elongate illumination unit for illuminating product in the product flow with visible light, infrared and/or UV illumination at first and second, different wavelengths or ranges of different wavelengths; a detector unit for detecting reflected illumination from product in the product flow, wherein the detector unit comprises first and second line array detectors (17a, 17b), each of the first and second line array detectors (17a, 17b) comprising a plurality of pixel elements arranged as a pixel line (L1, L2) which extends across the product flow, the pixel line of the second line array detector being located downstream of the pixel line of the first line array detector, whereby product passing a pixel element of the pixel line of the first line array detector passes a corresponding pixel element of the pixel line of the second line array detector; a control unit for triggering the illumination unit to flash at a scan rate corresponding to the flow rate of the product flow; and an image processing unit for reading the pixel lines (L1, L2) of the first and second line array detectors (17a, 17b) at successive scan periods and constructing wavelength images of the product at each of the first and second different wavelengths or ranges of different wavelengths, the image processing unit being operative to characterize the product based on a ratio of intensity of chromatic reflection for the first and second different wavelengths or ranges of different wavelengths. an elongate illumination unit for illuminating product in the product flow with visible light, infrared and/or UV illumination at first and second, different wavelengths or ranges of different wavelengths; a detector unit for detecting reflected illumination from product in the product flow, wherein the detector unit comprises first and second line array detectors (17a, 17b), each of the first and second line array detectors (17a, 17b) comprising a plurality of pixel elements arranged as a pixel line (L1, L2) which extends across the product flow, the pixel line of the second line array detector being located downstream of the pixel line of the first line array detector, whereby product passing a pixel element of the pixel line of the first line array detector passes a corresponding pixel element of the pixel line of the second line array detector; a control unit for triggering the illumination unit to flash at a scan rate corresponding to the flow rate of the product flow; and an image processing unit for reading the pixel lines (L1, L2) of the first and second line array detectors (17a, 17b) at successive scan periods and constructing wavelength images of the product at each of the first and second different wavelengths or ranges of different wavelengths, the image processing unit being operative to characterize the product based on a ratio of intensity of chromatic reflection for the first and second different wavelengths or ranges of different wavelengths.
A method for bonding dissimilar substrates, comprising: disposing a first adhesive material (111; 511) onto a first substrate contact surface (106; 506) of a first substrate (105; 505), the first substrate (105; 505) comprising an aluminum alloy; curing the first adhesive material (111; 511) to form a cured first adhesive material; characterised by disposing a second adhesive material (115; 515) onto a first adhesive side (125; 525) of the cured first adhesive material (111; 511); and disposing a second substrate contact surface (121; 521) of a second substrate (120; 520) onto the second adhesive material (115; 515), the second substrate (120; 520) comprising a titanium alloy. disposing a first adhesive material (111; 511) onto a first substrate contact surface (106; 506) of a first substrate (105; 505), the first substrate (105; 505) comprising an aluminum alloy; curing the first adhesive material (111; 511) to form a cured first adhesive material; characterised by disposing a second adhesive material (115; 515) onto a first adhesive side (125; 525) of the cured first adhesive material (111; 511); and disposing a second substrate contact surface (121; 521) of a second substrate (120; 520) onto the second adhesive material (115; 515), the second substrate (120; 520) comprising a titanium alloy.
A process for producing a PEGylated protein mixture the process comprising: a) reacting a non-PEGylated protein with a PEGylation reagent to produce a mixture of reaction products comprising non-PEGylated protein and PEGylated protein, wherein the PEGylated protein comprises mono-PEGylated protein and oligo-PEGylated protein; b) subjecting the mixture of reaction products to an ion exchange chromatography step to provide an IEC flow-through solution in which the fraction of PEGylated protein is increased relative to the mixture of reaction products; the IEC step comprising applying the mixture of reaction products to an IEC material under conditions suitable for binding non-PEGylated protein; and c) collecting the IEC flow-through solution from step b) to provide a PEGylated protein mixture comprising mono-PEGylated protein and oligo-PEGylated protein, wherein non-PEGylated protein is recovered in step b) by eluting an IEC eluate from the IEC material and the eluted non-PEGylated protein is used in a subsequent PEGylation reaction. a) reacting a non-PEGylated protein with a PEGylation reagent to produce a mixture of reaction products comprising non-PEGylated protein and PEGylated protein, wherein the PEGylated protein comprises mono-PEGylated protein and oligo-PEGylated protein; b) subjecting the mixture of reaction products to an ion exchange chromatography step to provide an IEC flow-through solution in which the fraction of PEGylated protein is increased relative to the mixture of reaction products; the IEC step comprising applying the mixture of reaction products to an IEC material under conditions suitable for binding non-PEGylated protein; and c) collecting the IEC flow-through solution from step b) to provide a PEGylated protein mixture comprising mono-PEGylated protein and oligo-PEGylated protein,
A guidewire for performing medical procedures, the guidewire comprising: a central core, including: a first region having a first outer diameter and a distal surface, the distal surface being a distal end face of the first region, and a second region distal to the first region, the second region having a second outer diameter different than the first outer diameter, and the second region having a proximal surface, wherein at least a portion of the distal surface of the first region is angled relative to a portion of the proximal surface of the second region; a first covering surrounding the first region, the first covering and the first region forming a first covered region, the first covering having a distal end at the distal end face of the first region, and the first covered region having a third outer diameter; and a second covering surrounding the second region, the second covering and the second region forming a second covered region, and the second covered region having a fourth outer diameter, wherein the third outer diameter and the fourth outer diameter are substantially equal. a central core, including: a first region having a first outer diameter and a distal surface, the distal surface being a distal end face of the first region, and a second region distal to the first region, the second region having a second outer diameter different than the first outer diameter, and the second region having a proximal surface, wherein at least a portion of the distal surface of the first region is angled relative to a portion of the proximal surface of the second region; a first region having a first outer diameter and a distal surface, the distal surface being a distal end face of the first region, and a second region distal to the first region, the second region having a second outer diameter different than the first outer diameter, and the second region having a proximal surface, wherein at least a portion of the distal surface of the first region is angled relative to a portion of the proximal surface of the second region; a first covering surrounding the first region, the first covering and the first region forming a first covered region, the first covering having a distal end at the distal end face of the first region, and the first covered region having a third outer diameter; and a second covering surrounding the second region, the second covering and the second region forming a second covered region, and the second covered region having a fourth outer diameter, wherein the third outer diameter and the fourth outer diameter are substantially equal.