mhurhangee/ep-ind-claims huggingface dataset:
An Optical Frequency Domain Reflectometry, OFDR, interrogation system for measuring an optical fiber sensor including multiple optical cores, the system comprising: a tunable laser (1, 16, 32) configured to perform a wavelength sweep including: a rising sweep, a falling sweep, and a turnaround portion transitioning between the rising and falling sweeps, wherein in the rising sweep a wavelength of laser light output by the tunable laser increases from a smallest wavelength to a largest wavelength in a first range of wavelengths, wherein in the falling sweep the wavelength of the laser light decreases from the largest wavelength to the smallest wavelength, and wherein in the turnaround portion the wavelength of the laser light comprises wavelengths in a second range of wavelengths outside the first range of wavelengths; an optical interferometric network (2, 12) to provide the laser light to the optical fiber sensor and to output reflected light from each of the multiple optical cores of the optical fiber sensor, the output reflected light corresponding to sensor measurement data; detection circuitry (4, 20) to detect and convert the output reflected light from each of the multiple optical cores of the optical fiber sensor into corresponding electrical signals; and data processing circuitry (5, 22) to process the sensor measurement data acquired during the rising and falling sweeps and to perform an additional operation during the turnaround portion. a tunable laser (1, 16, 32) configured to perform a wavelength sweep including: a rising sweep, a falling sweep, and a turnaround portion transitioning between the rising and falling sweeps, wherein in the rising sweep a wavelength of laser light output by the tunable laser increases from a smallest wavelength to a largest wavelength in a first range of wavelengths, wherein in the falling sweep the wavelength of the laser light decreases from the largest wavelength to the smallest wavelength, and wherein in the turnaround portion the wavelength of the laser light comprises wavelengths in a second range of wavelengths outside the first range of wavelengths; an optical interferometric network (2, 12) to provide the laser light to the optical fiber sensor and to output reflected light from each of the multiple optical cores of the optical fiber sensor, the output reflected light corresponding to sensor measurement data; detection circuitry (4, 20) to detect and convert the output reflected light from each of the multiple optical cores of the optical fiber sensor into corresponding electrical signals; and data processing circuitry (5, 22) to process the sensor measurement data acquired during the rising and falling sweeps and to perform an additional operation during the turnaround portion.
A blow molding machine assembly configured to be mounted to a blow molding machine to move a mold base configured to form a container base, the blow molding machine assembly comprising: an over-stroke cylinder (50, 512) configured to move the mold base between an extended base position and a retracted base position; and a counter-stretch rod (74, 550) movable between a retracted rod position in which the counter-stretch rod (74, 550) does not extend out from within the mold base, and an extended rod position in which the counter-stretch rod extends out from within the mold base, characterized in that the over-stroke cylinder (50, 512) defines an aperture in which is seated an adaptor that is slidably movable along a longitudinal axis between a retracted position and an extended position and in that a counter-stretch cylinder extends from the adaptor. an over-stroke cylinder (50, 512) configured to move the mold base between an extended base position and a retracted base position; and a counter-stretch rod (74, 550) movable between a retracted rod position in which the counter-stretch rod (74, 550) does not extend out from within the mold base, and an extended rod position in which the counter-stretch rod extends out from within the mold base, characterized in that the over-stroke cylinder (50, 512) defines an aperture in which is seated an adaptor that is slidably movable along a longitudinal axis between a retracted position and an extended position and in that a counter-stretch cylinder extends from the adaptor.
A method of regenerating a liquid container, comprising: providing the liquid container having a liquid receptacle capable of storing a liquid, and a storage unit that stores the liquid receptacle and whose opening is airtight sealed by a sealing member; separating at least part of the sealing member from the storage unit; removing the liquid receptacle stored in the storage container from the opening to outside the storage unit; storing a liquid receptacle filled with liquid from the opening in the storage unit; and airtight sealing the opening of the storage unit in which the liquid receptacle filled with liquid is stored with the sealing member, characterized in that the method further comprises: machining a contact surface of the storage unit that contacts the sealing member; and the sealing is executed by adhering the sealing member to the processed contact surface. providing the liquid container having a liquid receptacle capable of storing a liquid, and a storage unit that stores the liquid receptacle and whose opening is airtight sealed by a sealing member; separating at least part of the sealing member from the storage unit; removing the liquid receptacle stored in the storage container from the opening to outside the storage unit; storing a liquid receptacle filled with liquid from the opening in the storage unit; and airtight sealing the opening of the storage unit in which the liquid receptacle filled with liquid is stored with the sealing member, characterized in that the method further comprises: machining a contact surface of the storage unit that contacts the sealing member; and the sealing is executed by adhering the sealing member to the processed contact surface. machining a contact surface of the storage unit that contacts the sealing member; and the sealing is executed by adhering the sealing member to the processed contact surface.
A method for receiving information from a base station to a user equipment, UE, wherein a primary component carrier cell, Pcell, is established between the base station and the UE, and the Pcell is associated with a first component carrier, CC, the method comprising: receiving, by the UE, determination information from the base station via the Pcell, the determination information identifying a secondary component carrier cell, Scell, associated with a second CC, wherein the determination information operable for indicating to the UE the absence of at least a one of the following in the Scell: a physical broadcast channel, PBCH, one or more synchronization signals, SCH, or one or more cell-specific reference signals, CRS; and the method further comprises receiving, by the UE, user data within one or more resource elements normally associated with at least one of the following in the Scell: the PBCH, the SCH or the CRS; wherein the receiving determination information from the base station via the Pcell comprises: receiving the determination information using radio resource control, RRC, broadcast signaling via the Pcell, in at least one of: a master information block, MIB, or a system information block, SIB. receiving, by the UE, determination information from the base station via the Pcell, the determination information identifying a secondary component carrier cell, Scell, associated with a second CC, wherein the determination information operable for indicating to the UE the absence of at least a one of the following in the Scell: a physical broadcast channel, PBCH, one or more synchronization signals, SCH, or one or more cell-specific reference signals, CRS; and the method further comprises receiving, by the UE, user data within one or more resource elements normally associated with at least one of the following in the Scell: the PBCH, the SCH or the CRS; wherein the receiving determination information from the base station via the Pcell comprises: receiving the determination information using radio resource control, RRC, broadcast signaling via the Pcell, in at least one of: a master information block, MIB, or a system information block, SIB.
Module for a folder-gluer comprising a frame having two substantially vertical front and rear walls (14, 16) and at least one functional arrangement (28, 33) held by the frame, characterized in that the frame further comprises at least one transverse element (17, 18), mechanically connecting and maintaining a parallelism between the two walls (14, 16) and configured with at least one substantially horizontal portion forming an apron, so as to permit an operator to climb onto the frame and to access the functional arrangement (28, 33).
A drive system for an aircraft landing gear comprising: first and second gears for engagement to transfer a drive input to the system between the first and second gears; an actuator for adjusting a distance between rotational axes of the first and second gears; a sensor for detecting at least one parameter indicative of a transmission error through the first and second gears; and a controller for controlling the actuator to adjust a distance between respective rotational axes of the gears, in response to the detected parameter, when the first and second gears are engaged to minimise the transmission error, characterised in that the controller is arranged for controlling the actuator to adjust the distance between respective rotational axes of the gears to minimise an amplitude of an oscillation of the detected parameter, wherein the controller is arranged for monitoring the detected parameter to identify a wear condition of the first and/or second gears. first and second gears for engagement to transfer a drive input to the system between the first and second gears; an actuator for adjusting a distance between rotational axes of the first and second gears; a sensor for detecting at least one parameter indicative of a transmission error through the first and second gears; and a controller for controlling the actuator to adjust a distance between respective rotational axes of the gears, in response to the detected parameter, when the first and second gears are engaged to minimise the transmission error, characterised in that the controller is arranged for controlling the actuator to adjust the distance between respective rotational axes of the gears to minimise an amplitude of an oscillation of the detected parameter, wherein the controller is arranged for monitoring the detected parameter to identify a wear condition of the first and/or second gears.
An apparatus, comprising: an elongated flyer bow having an inner and outer surface, one of said surfaces having at least one longitudinal recess (102;202;302;304,306) extending within said one surface, said at least one recess having an inner transverse dimension (a-a; c-c; e-e) and an outer transverse dimension (b-b; d-d; f-f), said inner transverse dimension being greater than said outer transverse dimension; at least one wear insert (402, 404, 406), said wear insert having a bow engagement portion and a wear surface on the face of said wear insert opposite said bow engagement portion; and at least one guide (502; 504; 506) having a bow engagement portion and a guide opening located on the opposite side of said guide from said bow engagement portion; and characterised in that the bow engagement portion of the at least one wear insert is disposed to slidably engage said longitudinal recess, engagement with said longitudinal recess restraining significant radial movement of said wear insert; the bow engagement portion of the at least one guide is disposed to slidably engage said longitudinal recess, engagement of said bow engagement portion with said longitudinal recess restraining significant radial movement of said guide; and at least one stop is detachably affixed to said flyer bow such that said wear inserts and guides in said longitudinal recess are longitudinally confined therein. an elongated flyer bow having an inner and outer surface, one of said surfaces having at least one longitudinal recess (102;202;302;304,306) extending within said one surface, said at least one recess having an inner transverse dimension (a-a; c-c; e-e) and an outer transverse dimension (b-b; d-d; f-f), said inner transverse dimension being greater than said outer transverse dimension; at least one wear insert (402, 404, 406), said wear insert having a bow engagement portion and a wear surface on the face of said wear insert opposite said bow engagement portion; and at least one guide (502; 504; 506) having a bow engagement portion and a guide opening located on the opposite side of said guide from said bow engagement portion; and characterised in that the bow engagement portion of the at least one wear insert is disposed to slidably engage said longitudinal recess, engagement with said longitudinal recess restraining significant radial movement of said wear insert; the bow engagement portion of the at least one guide is disposed to slidably engage said longitudinal recess, engagement of said bow engagement portion with said longitudinal recess restraining significant radial movement of said guide; and at least one stop is detachably affixed to said flyer bow such that said wear inserts and guides in said longitudinal recess are longitudinally confined therein.
A method of manufacturing a security document, comprising: (a) providing a polymeric substrate having first and second surfaces; then performing the following steps (b), (c) and (d) in any order: (b) applying a curable material to a first region of the substrate on its first surface; (c) forming the curable material such that its surface distal from the substrate follows the contours of an optically variable effect generating relief structure and curing the curable material such that the relief structure is retained by the cured material; (d) applying one or more coating layers (3,4,5) to the first and/or second surface(s) of the substrate to define a viewing region, the coating layer(s) being absent at least on the first surface across all or part of the first region; Characterised in that then: (e) applying a masking substance to the first surface of the substrate, excluding at least a second region which includes at least part of the first region, the overlapping portions of the first and second regions defining a third region; (f) depositing a reflection enhancing material onto the first surface of the substrate such that, in the third region, the reflection enhancing material is deposited onto the cured material and follows the contours of the relief structure; wherein the masking substance impedes the retention of the reflection enhancing material such that the reflection enhancing material is retained only in areas to which the masking substance was not applied. (a) providing a polymeric substrate having first and second surfaces; (b) applying a curable material to a first region of the substrate on its first surface; (c) forming the curable material such that its surface distal from the substrate follows the contours of an optically variable effect generating relief structure and curing the curable material such that the relief structure is retained by the cured material; (d) applying one or more coating layers (3,4,5) to the first and/or second surface(s) of the substrate to define a viewing region, the coating layer(s) being absent at least on the first surface across all or part of the first region; Characterised in that then: (e) applying a masking substance to the first surface of the substrate, excluding at least a second region which includes at least part of the first region, the overlapping portions of the first and second regions defining a third region; (f) depositing a reflection enhancing material onto the first surface of the substrate such that, in the third region, the reflection enhancing material is deposited onto the cured material and follows the contours of the relief structure; wherein the masking substance impedes the retention of the reflection enhancing material such that the reflection enhancing material is retained only in areas to which the masking substance was not applied.
A gripper chain assembly, comprising: a first chain capable of traveling in a path direction; a first gripper attachment (12, 58) having a first base (24, 62) mounted to the first chain the first base (24, 62) extends from a first end (28, 64) to the second end (30; 66); a first plurality of resilient fingers (32, 60) extending from the first base (24, 62) and substantially aligned transversely to the path direction; a second chain adjacent the first chain capable of traveling in the path direction, wherein a second gripper attachment (12, 58) having a second base (24, 62) is mounted to the second chain, a second plurality of resilient fingers (32, 60) extending from the second base (24, 62) towards the first plurality of resilient fingers (32, 60), wherein when an article is between the first plurality of resilient fingers (32, 60) and the second plurality of resilient fingers (32, 60), the first and second plurality of resilient fingers (32, 60) substantially independently deflect and flex from a natural unengaged position to engage and generally conform to the article; characterized in that the first base (24, 62) includes an undercut along each end (28, 30) such that at least one of the first plurality of resilient fingers (32, 60) is cantilevered from the first base (24, 62). a first chain capable of traveling in a path direction; a first gripper attachment (12, 58) having a first base (24, 62) mounted to the first chain the first base (24, 62) extends from a first end (28, 64) to the second end (30; 66); a first plurality of resilient fingers (32, 60) extending from the first base (24, 62) and substantially aligned transversely to the path direction; a second chain adjacent the first chain capable of traveling in the path direction, wherein a second gripper attachment (12, 58) having a second base (24, 62) is mounted to the second chain, a second plurality of resilient fingers (32, 60) extending from the second base (24, 62) towards the first plurality of resilient fingers (32, 60), wherein when an article is between the first plurality of resilient fingers (32, 60) and the second plurality of resilient fingers (32, 60), the first and second plurality of resilient fingers (32, 60) substantially independently deflect and flex from a natural unengaged position to engage and generally conform to the article; characterized in that the first base (24, 62) includes an undercut along each end (28, 30) such that at least one of the first plurality of resilient fingers (32, 60) is cantilevered from the first base (24, 62).
Method for the pyrolytic cleaning of a cooking appliance having at least one cooking chamber capable of being heated up, a heating device for heating up the cooking chamber and a temperature regulation device for regulating a cooking chamber temperature, the cooking chamber being heated up in a heating phase to a pyrolysis target temperature of between 400°C and 600°C, characterised by the following steps: - heating up the cooking chamber to a cooking chamber temperature of 270°C, - starting from a cooking chamber temperature of 270°C, heating up the cooking chamber to a cooking chamber temperature of 350°C with an average heating-up rate of 2 K/min to 4 K/min. - heating up the cooking chamber to a cooking chamber temperature of 270°C, - starting from a cooking chamber temperature of 270°C, heating up the cooking chamber to a cooking chamber temperature of 350°C with an average heating-up rate of 2 K/min to 4 K/min.
A process for printing onto a substrate using a printer comprising: positioning the substrate on the printer; printing a first layer of material on the substrate, the first layer having a pattern of openings; partially curing the first layer by subjecting the first layer to a first radiation event; printing a second layer of material over the first layer; partially curing the second layer and further curing the first layer by subjecting the second layer to a second radiation event; wherein the first layer of material expands into the pattern of openings as it is cured to at least partially fill in the pattern of openings. positioning the substrate on the printer; printing a first layer of material on the substrate, the first layer having a pattern of openings; partially curing the first layer by subjecting the first layer to a first radiation event; printing a second layer of material over the first layer; partially curing the second layer and further curing the first layer by subjecting the second layer to a second radiation event; wherein the first layer of material expands into the pattern of openings as it is cured to at least partially fill in the pattern of openings.
A method of repairing an oxidized defect in a superalloy article, the method comprising: removing substantially all of the oxidized defect to form a cleaned out portion of the superalloy article; filling a portion of the cleaned out portion with a weld by fusion welding, characterised in that it further comprises: cracking the weld to form a weld forced crack; wherein cracking the weld comprises: inputting heat during welding, through induction, to create cracking of the weld; or dropping a temperature of the weld at a rate sufficient to cause cracking by quenching; or restraining the weld, and filling the weld forced crack and a remaining portion of the cleaned out portion with a braze material. removing substantially all of the oxidized defect to form a cleaned out portion of the superalloy article; filling a portion of the cleaned out portion with a weld by fusion welding, characterised in that it further comprises: cracking the weld to form a weld forced crack; wherein cracking the weld comprises: inputting heat during welding, through induction, to create cracking of the weld; or dropping a temperature of the weld at a rate sufficient to cause cracking by quenching; or restraining the weld, and filling the weld forced crack and a remaining portion of the cleaned out portion with a braze material. cracking the weld to form a weld forced crack; wherein cracking the weld comprises: inputting heat during welding, through induction, to create cracking of the weld; or dropping a temperature of the weld at a rate sufficient to cause cracking by quenching; or restraining the weld, and filling the weld forced crack and a remaining portion of the cleaned out portion with a braze material.