mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a crosslinked biodegradable particle, comprising: dissolving polyvalerolactone backbones containing a plurality of allyl groups, a dithiol, and a photoinitiator in at least one solvent to form a solution; emulsifying the solution in an aqueous phase to form an emulsion; irradiating the emulsion with UV light to react the dithiol with two of the allyl groups to form a crosslink; and evaporating at least a portion of the solvent from the emulsion; wherein the crosslinked degradable particle comprises crosslinked polyester of the Formula I: wherein: R 1 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 2 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 3 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; a is 0, 1, or 2; m is independently, at each occurrence, an integer between 1 and 1000, inclusive; n is independently, at each occurrence, an integer between 1 and 1000, inclusive; p is independently, at each occurrence, an integer between 0 and 5, inclusive; q is independently, at each occurrence, an integer between 0 and 1000, inclusive; r is independently, at each occurrence, an integer between 0 and 1000, inclusive; and t is independently, at each occurrence, an integer between 0 and 5, inclusive. dissolving polyvalerolactone backbones containing a plurality of allyl groups, a dithiol, and a photoinitiator in at least one solvent to form a solution; emulsifying the solution in an aqueous phase to form an emulsion; irradiating the emulsion with UV light to react the dithiol with two of the allyl groups to form a crosslink; and evaporating at least a portion of the solvent from the emulsion; wherein the crosslinked degradable particle comprises crosslinked polyester of the Formula I: wherein: R 1 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 2 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 3 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; a is 0, 1, or 2; m is independently, at each occurrence, an integer between 1 and 1000, inclusive; n is independently, at each occurrence, an integer between 1 and 1000, inclusive; p is independently, at each occurrence, an integer between 0 and 5, inclusive; q is independently, at each occurrence, an integer between 0 and 1000, inclusive; r is independently, at each occurrence, an integer between 0 and 1000, inclusive; and t is independently, at each occurrence, an integer between 0 and 5, inclusive. R 1 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 2 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 3 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; a is 0, 1, or 2; m is independently, at each occurrence, an integer between 1 and 1000, inclusive; n is independently, at each occurrence, an integer between 1 and 1000, inclusive; p is independently, at each occurrence, an integer between 0 and 5, inclusive; q is independently, at each occurrence, an integer between 0 and 1000, inclusive; r is independently, at each occurrence, an integer between 0 and 1000, inclusive; and t is independently, at each occurrence, an integer between 0 and 5, inclusive.
Piston ring with a DLC coating on a substrate, characterised in that a softer material than DLC is embedded in the surface of the DLC coating with which the piston ring is to come into contact with a sliding partner against which the piston ring is to slide.
A Split Stirling cryogenic refrigerator comprising an expander unit and a compressor unit mounted in a side by side configuration upon a common frame, and a vibration attenuation unit attached to said Split Stirling cryogenic refrigerator , said Split Stirling cryogenic refrigerator having an operation frequency; wherein said vibration attenuation unit comprises at least one undamped mass-spring system comprising a planar flexural bearing and a proof mass assembly , the proof mass assembly comprises at least one primary proof mass element mounted fixedly on a peripheral anchor of said flexural bearing and at least one secondary proof mass element mounted on and moveable with respect to said primary proof mass element ; said vibration attenuation unit having two or more vibrational modes and a frequency corresponding to said operation frequency of the Split Stirling cryogenic refrigerator , thereby enabling attenuation of vibrations of said Split Stirling cryogenic refrigerator along said two or more vibrational modes.
A wet clutch assembly , comprising: a clutch pack having a plurality of friction members attached to a first clutch housing and a plurality of separator members attached to a second clutch housing, the friction members and the separator members configured to be selectively contacted to each other to engage the first housing member to the second housing member, wherein the clutch pack is in fluid communication with a lubrication source such that a lubrication flow can flow to the friction members and the separator members to remove heat and/or debris therefrom; a shaft defining a shaft channel , and one or more clutch lubrication holes defined through the shaft and positioned and configured to allow lubrication flow to travel to the clutch pack from the shaft channel, wherein the lubrication source is in fluid communication with the shaft channel. wherein the first clutch housing is an outer clutch basket and the second clutch housing is an inner clutch basket ; wherein the inner clutch basket includes one or more flow holes defined through a bell flange of the inner clutch basket to allow lubrication flow from the shaft to pass through the bell flange of the inner clutch basket and into the clutch pack; and characterized in that the inner clutch basket includes one or more end lips configured to retain lubricant, as in a bowl, axially over the flow holes of the inner clutch basket to improve lubricant distribution over the flow holes . a clutch pack having a plurality of friction members attached to a first clutch housing and a plurality of separator members attached to a second clutch housing, the friction members and the separator members configured to be selectively contacted to each other to engage the first housing member to the second housing member, wherein the clutch pack is in fluid communication with a lubrication source such that a lubrication flow can flow to the friction members and the separator members to remove heat and/or debris therefrom; a shaft defining a shaft channel , and one or more clutch lubrication holes defined through the shaft and positioned and configured to allow lubrication flow to travel to the clutch pack from the shaft channel, wherein the lubrication source is in fluid communication with the shaft channel. wherein the first clutch housing is an outer clutch basket and the second clutch housing is an inner clutch basket ; wherein the inner clutch basket includes one or more flow holes defined through a bell flange of the inner clutch basket to allow lubrication flow from the shaft to pass through the bell flange of the inner clutch basket and into the clutch pack; and characterized in that the inner clutch basket includes one or more end lips configured to retain lubricant, as in a bowl, axially over the flow holes of the inner clutch basket to improve lubricant distribution over the flow holes .
A monitoring device for monitoring substances comprising: a group of at least two sensors , each of the sensors in said group separately monitoring the same substance and providing a respective output signal in response to the detection of said same substance; an orientation sensor that provides an orientation output signal indicating the physical orientation of the monitoring device; a processing unit with memory , said processing unit being responsive to each of the respective output signals of the sensors in said group and responsive to the orientation output signal to determine a sensor orientation of each of the sensors in said group, and to determine a detection signal for said substance based on the output signals and the sensor orientations; a display that is responsive to the detection signal of said processing unit, said display showing the detection condition for said substance in accordance with said detection signal; and an alarm that is responsive to said processing unit, said alarm being activated at times when said detection signal deviates from a level that corresponds to a predetermined concentration of said substance. a group of at least two sensors , each of the sensors in said group separately monitoring the same substance and providing a respective output signal in response to the detection of said same substance; an orientation sensor that provides an orientation output signal indicating the physical orientation of the monitoring device; a processing unit with memory , said processing unit being responsive to each of the respective output signals of the sensors in said group and responsive to the orientation output signal to determine a sensor orientation of each of the sensors in said group, and to determine a detection signal for said substance based on the output signals and the sensor orientations; a display that is responsive to the detection signal of said processing unit, said display showing the detection condition for said substance in accordance with said detection signal; and an alarm that is responsive to said processing unit, said alarm being activated at times when said detection signal deviates from a level that corresponds to a predetermined concentration of said substance.
A method for facilitating Machine Type Communication, MTC, in a wireless communications system, the method comprising: receiving one or more MTC-specific system information blocks at an MTC device , wherein one of the MTC-specific system information blocks comprises a combination of system information included in two or more other system information blocks to limit an amount of unnecessary information received by the MTC device , wherein combining the two or more other system information blocks into the one or more MTC-specific system information blocks comprises combining at least one first portion from the two or more other system information blocks and removing another second portion, and wherein the first portion includes MTC-relevant system information and the second portion includes additional system information; and processing the one or more MTC-specific system information blocks at the MTC device . receiving one or more MTC-specific system information blocks at an MTC device , wherein one of the MTC-specific system information blocks comprises a combination of system information included in two or more other system information blocks to limit an amount of unnecessary information received by the MTC device , wherein combining the two or more other system information blocks into the one or more MTC-specific system information blocks comprises combining at least one first portion from the two or more other system information blocks and removing another second portion, and wherein the first portion includes MTC-relevant system information and the second portion includes additional system information; and processing the one or more MTC-specific system information blocks at the MTC device .
A pressure airlock for an inflator or a gauge for use with a valve stem having exterior threads and a valve core , the pressure airlock comprising: a conduit in fluid communication with the inflator or the gauge; a tip extending from the conduit , the tip having a bore ; a core depressor positioned within the bore; an inner shoulder surrounding the core depressor , the core depressor extending beyond the inner shoulder; an outer shoulder extending from the inner shoulder, the outer shoulder extending beyond the core depressor; a seal positioned on the inner shoulder and the outer shoulder and extending within the tip; wherein the seal comprises a two piece seal, a first piece positioned on the inner shoulder and a second piece positioned on the outer shoulder; wherein the first piece and the second piece of the seal have a different hardness. a conduit in fluid communication with the inflator or the gauge; a tip extending from the conduit , the tip having a bore ; a core depressor positioned within the bore; an inner shoulder surrounding the core depressor , the core depressor extending beyond the inner shoulder; an outer shoulder extending from the inner shoulder, the outer shoulder extending beyond the core depressor; a seal positioned on the inner shoulder and the outer shoulder and extending within the tip; wherein the seal comprises a two piece seal, a first piece positioned on the inner shoulder and a second piece positioned on the outer shoulder; wherein the first piece and the second piece of the seal have a different hardness.
A polarity inversion driving method of a liquid crystal display, LCD, panel, wherein each of the frames is divided into M polarity arrangement units in a same manner, every 2xMxN frames form an inversion driving period, wherein N=2, the driving method comprising: applying driving signals to the pixels of the M polarity arrangement units in a first and (2M +1) th frame, such that two adjacent polarity arrangement units have pixels in same columns with opposite polarities, and corresponding pixels in the first and (2M+1) th frames have opposite polarities, ∀ m ∈ [1, M], applying driving signals such that, in the m th polarity arrangement unit, pixels of the (2m-1) th frame have a same polarity as corresponding pixels of the th frame, and, in all polarity arrangement units except in the m th polarity arrangement unit, pixels of the (2m-1) th frame have opposite polarities to the polarities of corresponding pixels of the th frame, ∀ m ∈ [M+1, 2M], applying driving signals such that, in the (m-M) th polarity arrangement unit, pixels of the (2m-1) th frame have a same polarity as corresponding pixels of the th frame, and, in all polarity arrangement units except in the (m-M) th polarity arrangement unit, pixels of the (2m-1) th frame have opposite polarities to the polarities of corresponding pixels of the th frame, ∀ m ∈ , applying driving signals such that, in the M polarity arrangement units, pixels in the th frame have opposite polarities to the polarities of corresponding pixels in the (2m+1) th frame, wherein the polarity arrangement unit is a row and each two adjacent pixels in each row have opposite polarities. applying driving signals to the pixels of the M polarity arrangement units in a first and (2M +1) th frame, such that two adjacent polarity arrangement units have pixels in same columns with opposite polarities, and corresponding pixels in the first and (2M+1) th frames have opposite polarities, ∀ m ∈ [1, M], applying driving signals such that, in the m th polarity arrangement unit, pixels of the (2m-1) th frame have a same polarity as corresponding pixels of the th frame, and, in all polarity arrangement units except in the m th polarity arrangement unit, pixels of the (2m-1) th frame have opposite polarities to the polarities of corresponding pixels of the th frame, ∀ m ∈ [M+1, 2M], applying driving signals such that, in the (m-M) th polarity arrangement unit, pixels of the (2m-1) th frame have a same polarity as corresponding pixels of the th frame, and, in all polarity arrangement units except in the (m-M) th polarity arrangement unit, pixels of the (2m-1) th frame have opposite polarities to the polarities of corresponding pixels of the th frame, ∀ m ∈ , applying driving signals such that, in the M polarity arrangement units, pixels in the th frame have opposite polarities to the polarities of corresponding pixels in the (2m+1) th frame, wherein the polarity arrangement unit is a row and each two adjacent pixels in each row have opposite polarities.
A vehicle lamp socket assembly , comprising: a housing having a cavity and a connector with a socket , said housing further having a pass-through spanning between said cavity and said socket ; a body received in said housing at said cavity , said body having at least one retainer that holds a vehicle lamp in said body ; a sealant located adjacent and at said pass-through and filling at least a section of said pass-through , said sealant hardening in said pass-through and against an outer surface of said body and forming a seal thereat; and a terminal blade extending through said pass-through and through said sealant , wherein said sealant is embedded around said terminal blade and provides a seal at said pass-through and at said terminal blade . a housing having a cavity and a connector with a socket , said housing further having a pass-through spanning between said cavity and said socket ; a body received in said housing at said cavity , said body having at least one retainer that holds a vehicle lamp in said body ; a sealant located adjacent and at said pass-through and filling at least a section of said pass-through , said sealant hardening in said pass-through and against an outer surface of said body and forming a seal thereat; and a terminal blade extending through said pass-through and through said sealant , wherein said sealant is embedded around said terminal blade and provides a seal at said pass-through and at said terminal blade .
A method implemented at a first device, comprising: sending to a second device a first request for validating integrity of a program on the second device; receiving a first response from the second device, wherein the first response comprises information regarding one or more tags collected during operation of the program; attesting integrity of the program based on the first response and an expected response; the method characterised in that when the program does not pass runtime attestation: sending to the second device a second request for obtaining information regarding at least one of the one or more tags; receiving from the second device a second response comprising information regarding the at least one of the one or more tags; comparing the received information with corresponding expected information; and locating an attacked area of the program based on the comparison result. sending to a second device a first request for validating integrity of a program on the second device; receiving a first response from the second device, wherein the first response comprises information regarding one or more tags collected during operation of the program; attesting integrity of the program based on the first response and an expected response; the method characterised in that when the program does not pass runtime attestation: sending to the second device a second request for obtaining information regarding at least one of the one or more tags; receiving from the second device a second response comprising information regarding the at least one of the one or more tags; comparing the received information with corresponding expected information; and locating an attacked area of the program based on the comparison result. sending to the second device a second request for obtaining information regarding at least one of the one or more tags; receiving from the second device a second response comprising information regarding the at least one of the one or more tags; comparing the received information with corresponding expected information; and locating an attacked area of the program based on the comparison result.
A wearing-point device arranged for mounting on a leading edge element of an implement , the wearing-point device comprising a wearing-part holder and a wearing point , wherein a quick-coupling formed from a coupling portion of the wearing-part holder and corresponding attachment portions of the wearing point , wherein the wearing-part holder is provided with a first sliding surface which is defined towards the wearing point by a forward sliding-surface edge and lies on approximately same level as corresponding third sliding surfaces on the attachment portions , and wherein the wearing point is provided with second sliding surfaces with a downward sloping rear edge forming an interface towards the attachment portions , a transverse eminence forms a boundary portion between the longitudinal elevation and the attachment portions , and wherein the first sliding surface and the second sliding surfaces are surfaces exposed to wear from a flow of material thereon, characterized in that a longitudinal elevation extends with an increasing height from a front portion towards the attachment portion , said second sliding surfaces extending in a downward-sloping manner from the vertical centre plane of the wearing point in the directions of opposite side edges of the wearing point . wherein a quick-coupling formed from a coupling portion of the wearing-part holder and corresponding attachment portions of the wearing point , wherein the wearing-part holder is provided with a first sliding surface which is defined towards the wearing point by a forward sliding-surface edge and lies on approximately same level as corresponding third sliding surfaces on the attachment portions , and wherein the wearing point is provided with second sliding surfaces with a downward sloping rear edge forming an interface towards the attachment portions , a transverse eminence forms a boundary portion between the longitudinal elevation and the attachment portions , and wherein the first sliding surface and the second sliding surfaces are surfaces exposed to wear from a flow of material thereon, a longitudinal elevation extends with an increasing height from a front portion towards the attachment portion , said second sliding surfaces extending in a downward-sloping manner from the vertical centre plane of the wearing point in the directions of opposite side edges of the wearing point .
An image-processing method comprising the steps of: (i) providing a stack for storing a predetermined number of frame portions; (ii) obtaining an image including a target object , the image being formed by an array of pixels; (iii) extracting a frame portion from the image , the frame portion being at least a portion of the pixels forming the image, corresponding to a region of interest in the image, the region of interest comprising the target object; the frame portion having an associated phase, representative of the sub-pixel translation shift of the region of interest defined by the frame portion, (iv) storing the frame portion in the stack , the storing including discarding an oldest previously stored frame portion from the stack if the number of frame portions stored in the stack has reached the predetermined number; (v) repeating steps (ii) to (iv) a plurality of times; and (vi) calculating a super-resolved image from the plurality of stored frame portions, including a sub-step of averaging all frame portions in the stack having a phase substantially equal to a given phase. (i) providing a stack for storing a predetermined number of frame portions; (ii) obtaining an image including a target object , the image being formed by an array of pixels; (iii) extracting a frame portion from the image , the frame portion being at least a portion of the pixels forming the image, corresponding to a region of interest in the image, the region of interest comprising the target object; the frame portion having an associated phase, representative of the sub-pixel translation shift of the region of interest defined by the frame portion, (iv) storing the frame portion in the stack , the storing including discarding an oldest previously stored frame portion from the stack if the number of frame portions stored in the stack has reached the predetermined number; (v) repeating steps (ii) to (iv) a plurality of times; and (vi) calculating a super-resolved image from the plurality of stored frame portions, including a sub-step of averaging all frame portions in the stack having a phase substantially equal to a given phase.