mhurhangee/patent-ind-claim-en huggingface dataset:
A scaffold comprising: a first polymeric electrospun fiber comprising a first material having a first degradation rate; and a second polymeric electrospun fiber comprising a second material having a second degradation rate different from the first degradation rate, wherein the first material is polyglycolide and the second material is poly-(lactide-co-caprolactone). a first polymeric electrospun fiber comprising a first material having a first degradation rate; and a second polymeric electrospun fiber comprising a second material having a second degradation rate different from the first degradation rate, wherein the first material is polyglycolide and the second material is poly-(lactide-co-caprolactone).
A cleaning article having a longitudinal axis (LA) and a transverse direction orthogonal thereto, said cleaning article comprising: at least one sheet , at least one layer of tow fibers joined to said sheet at a seal to form a laminate, said tow fibers generally extending in the transverse direction, characterized by said seal comprising a plurality of adjacent, successive discrete bonds collectively extending in a generally longitudinal direction to form a spine , said discrete bonds at least partially overlapping adjacent bonds in the longitudinal direction, so that each said tow fiber is joined to said sheet by at least one said discrete bond , wherein said bonds are serpentine shaped. at least one sheet , at least one layer of tow fibers joined to said sheet at a seal to form a laminate, said tow fibers generally extending in the transverse direction, characterized by said seal comprising a plurality of adjacent, successive discrete bonds collectively extending in a generally longitudinal direction to form a spine , said discrete bonds at least partially overlapping adjacent bonds in the longitudinal direction, so that each said tow fiber is joined to said sheet by at least one said discrete bond , wherein said bonds are serpentine shaped.
A multiple-layer beacon sweeping method performed by an access node having a plurality of antennas in a millimeter-wave-based network, the method comprising: - performing multiple beacon sweepings including at least a first beacon sweeping and a second beacon sweeping, wherein the first beacon sweeping has a first set of beams and a first coverage area, wherein the second beacon sweeping has a second set of beams and a second coverage area, wherein the first coverage area is larger than the second coverage area, wherein the first set of beams and the second set of beams carry same system information of the access node, and wherein each beam in the first set of beams and the second set of beams carries information indicating which beacon sweeping the beam belongs to, the method characterized in that if the first beacon sweeping and the second beacon sweeping overlap each other during a period of time, the second beacon sweeping is not performed during the period of time. - performing multiple beacon sweepings including at least a first beacon sweeping and a second beacon sweeping, wherein the first beacon sweeping has a first set of beams and a first coverage area, wherein the second beacon sweeping has a second set of beams and a second coverage area, wherein the first coverage area is larger than the second coverage area, wherein the first set of beams and the second set of beams carry same system information of the access node, and wherein each beam in the first set of beams and the second set of beams carries information indicating which beacon sweeping the beam belongs to, the method characterized in that if the first beacon sweeping and the second beacon sweeping overlap each other during a period of time, the second beacon sweeping is not performed during the period of time.
Thermoforming apparatus comprising: A device , in particular a clamping frame or a clamping device for receiving and holding a sheet (F), at least one heating field with a plurality of radiant heaters , and a control device for operating the radiant heaters , wherein the control device is configured to determine a total temperature field through superimposition of the individual intensity of the radiant heaters and to determine the respective switch-on time of the radiant heaters for a heating curve, wherein a reference curve for the heating of a particular sheet type determined in advance for the operation of a radiant heater is stored in the control device, characterised in that the reference curve is used for a superimposition calculation from the plurality of radiant heaters for switch-on times of the radiant heaters. A device , in particular a clamping frame or a clamping device for receiving and holding a sheet (F), at least one heating field with a plurality of radiant heaters , and a control device for operating the radiant heaters , wherein the control device is configured to determine a total temperature field through superimposition of the individual intensity of the radiant heaters and to determine the respective switch-on time of the radiant heaters for a heating curve, wherein a reference curve for the heating of a particular sheet type determined in advance for the operation of a radiant heater is stored in the control device, characterised in that the reference curve is used for a superimposition calculation from the plurality of radiant heaters for switch-on times of the radiant heaters.
A method of forming a pressure chamber at an autoclave, the method comprising: driving a layup mandrel in a process direction into an autoclave ; forming the pressure chamber having boundaries defined by the layup mandrel , the autoclave , and perimeter seals ; hardening a preform at the layup mandrel into a composite part ; and removing the layup mandrel . driving a layup mandrel in a process direction into an autoclave ; forming the pressure chamber having boundaries defined by the layup mandrel , the autoclave , and perimeter seals ; hardening a preform at the layup mandrel into a composite part ; and removing the layup mandrel .
Method for producing a tolerance compensation disc with the following method steps: determining (M1) a relative position of an internal contour of a first through-opening , formed in a first component , relative to an internal contour of a second through-opening formed in a second component , wherein the first and second through-openings (11; 21) are arranged one over the other; positioning (M2) a drill device relative to a tolerance compensation disc semifinished product , having an external contour corresponding to the internal contour of the second through-opening , in such a way that the position of the drill device relative to the external contour corresponds to the determined position of the internal contour of the first through-opening ; and forming (M3) a disc through-opening in the tolerance compensation disc semifinished product by means of the drill device . determining (M1) a relative position of an internal contour of a first through-opening , formed in a first component , relative to an internal contour of a second through-opening formed in a second component , wherein the first and second through-openings (11; 21) are arranged one over the other; positioning (M2) a drill device relative to a tolerance compensation disc semifinished product , having an external contour corresponding to the internal contour of the second through-opening , in such a way that the position of the drill device relative to the external contour corresponds to the determined position of the internal contour of the first through-opening ; and forming (M3) a disc through-opening in the tolerance compensation disc semifinished product by means of the drill device .
A composition for malodor reduction in fabric, the composition comprising: (A) a malodor reducing component comprising lauryl methacrylate; wherein the lauryl methacrylate is present in monomeric form; and (B) a freshening fragrance component comprising one or more of aldehyde compounds, ketone compounds, ester compounds or coumarin,. citronitrile, cycloprop, dihydromyrcenol, dimetol, cymal, gamma-heptalactone, karanal, musk galaxolide, ozonil, tetrahydromyrcenol, or yara yara. (A) a malodor reducing component comprising lauryl methacrylate; wherein the lauryl methacrylate is present in monomeric form; and (B) a freshening fragrance component comprising one or more of aldehyde compounds, ketone compounds, ester compounds or coumarin,. citronitrile, cycloprop, dihydromyrcenol, dimetol, cymal, gamma-heptalactone, karanal, musk galaxolide, ozonil, tetrahydromyrcenol, or yara yara.
A method for operating a valve , containing the steps: - determining or specifying a nonlinear characteristic curve function , which indicates a required relationship between a valve opening position and the flow of a fluid through the valve , - storing the characteristic curve function in an electronic control unit , - utilizing the stored characteristic curve function to set the valve opening position (H) of the valve depending on a control signal , which indicates a target flow through the valve , wherein the characteristic curve function is calculated automatically by means of a parameter value a, by means of an analytic function, or by interpolation with specified supporting values, which is or are specified by a user of the valve , characterized in that - the characteristic curve function is an inverse function determined from a characteristic curve for a heat exchanger and from a target function , - the characteristic curve for the heat exchanger indicates the relationship between the heating power or cooling power and the flow of a liquid or a gas through the heat exchanger , - the target function indicates the relationship between the heating power or cooling power of the heat exchanger depending on the valve opening position (H) of the valve , - the target function is preferably linear, and - the characteristic curve for the heat exchanger can preferably be calculated with the aid of the same parameter value (a) as the specified or determined characteristic curve function . - determining or specifying a nonlinear characteristic curve function , which indicates a required relationship between a valve opening position and the flow of a fluid through the valve , - storing the characteristic curve function in an electronic control unit , - utilizing the stored characteristic curve function to set the valve opening position (H) of the valve depending on a control signal , which indicates a target flow through the valve , wherein the characteristic curve function is calculated automatically by means of a parameter value a, by means of an analytic function, or by interpolation with specified supporting values, which is or are specified by a user of the valve , - the characteristic curve function is an inverse function determined from a characteristic curve for a heat exchanger and from a target function , - the characteristic curve for the heat exchanger indicates the relationship between the heating power or cooling power and the flow of a liquid or a gas through the heat exchanger , - the target function indicates the relationship between the heating power or cooling power of the heat exchanger depending on the valve opening position (H) of the valve , - the target function is preferably linear, and - the characteristic curve for the heat exchanger can preferably be calculated with the aid of the same parameter value (a) as the specified or determined characteristic curve function .
Expansion plug with a shaft , which has a neck area and an expansion area , in which the expansion area is arranged axially offset to the neck area , and an expansion channel , which runs through the neck area and the expansion area of the shaft , in which the shaft may be extended radially in the expansion area by inserting an expansion element into the expansion channel to anchor the expansion plug in a hole, in which the expansion channel is formed exclusively by recesses in the expansion area , which go out from the circumference of the shaft and lead into the inside of the shaft, and in which in at least one cross-sectional plane (A-A) of the expansion area the expansion channel is formed by two recesses running at least partly offset to each other in the cross-sectional plane (A-A), which go out from opposing areas of the circumference of the shaft in the cross-sectional plane (A-A), characterised in that a face of at least of one of the two recesses forms at least two contact facets for the expansion element.
A computer system comprising: one or more processors ; and one or more computer-readable storage media having stored thereon computer-executable instructions that are executable by the one or more processors to cause the computer system schedule garbage collection in a distributed environment that includes a plurality of partitions (241; 242; 243) that point to a plurality of data blocks (251; 252; 253) that store data objects (251A; 251B; 251C; 251D), the computer-executable instructions including instructions that are executable to cause the computer system to perform at least the following: accessing occupancy information for each of the plurality of partitions (241; 242; 243) from an occupancy index (245; 248) of each of the plurality of partitions (241; 242; 243), wherein the occupancy information specifies a portion of storage resources occupied by those of the plurality of data blocks (251; 252; 253) referenced by each of the plurality of partitions (241; 242; 243); aggregating the accessed occupancy information to generate a global occupancy index that combines the occupancy information of the plurality of partitions (241; 242; 243); and generating a global schedule for garbage collection for the plurality of partitions (241; 242; 243) based on the global occupancy index , the global schedule specifying which of the plurality of data blocks (251; 252; 253) included in the global occupancy index are to be subjected to garbage collection. one or more processors ; and one or more computer-readable storage media having stored thereon computer-executable instructions that are executable by the one or more processors to cause the computer system schedule garbage collection in a distributed environment that includes a plurality of partitions (241; 242; 243) that point to a plurality of data blocks (251; 252; 253) that store data objects (251A; 251B; 251C; 251D), the computer-executable instructions including instructions that are executable to cause the computer system to perform at least the following: accessing occupancy information for each of the plurality of partitions (241; 242; 243) from an occupancy index (245; 248) of each of the plurality of partitions (241; 242; 243), wherein the occupancy information specifies a portion of storage resources occupied by those of the plurality of data blocks (251; 252; 253) referenced by each of the plurality of partitions (241; 242; 243); aggregating the accessed occupancy information to generate a global occupancy index that combines the occupancy information of the plurality of partitions (241; 242; 243); and generating a global schedule for garbage collection for the plurality of partitions (241; 242; 243) based on the global occupancy index , the global schedule specifying which of the plurality of data blocks (251; 252; 253) included in the global occupancy index are to be subjected to garbage collection.
A method for putting into operation a lighting system for a plurality of luminaires arranged in a distributed manner, wherein the luminaires are connected to a central control unit , and the central control unit contacts the luminaires individually and transmits an operating address to them, wherein, when an operating address is allocated, the central control unit checks whether the contacted luminaire is a luminaire that requires a plurality of operating addresses, wherein, in the event that the luminaire actually requires a plurality of operating addresses, all further required operating addresses are transmitted to this luminaire before an address allocation to further luminaires of the lighting system takes place , characterized in that checking whether the contacted luminaire requires a plurality of operating addresses takes place by reading out and evaluating GTIN, General Trade Identification Number, information, which is stored in a memory of the luminaire and contains the information about the number of addresses required. wherein, when an operating address is allocated, the central control unit checks whether the contacted luminaire is a luminaire that requires a plurality of operating addresses, wherein, in the event that the luminaire actually requires a plurality of operating addresses, all further required operating addresses are transmitted to this luminaire before an address allocation to further luminaires of the lighting system takes place , characterized in that checking whether the contacted luminaire requires a plurality of operating addresses takes place by reading out and evaluating GTIN, General Trade Identification Number, information, which is stored in a memory of the luminaire and contains the information about the number of addresses required.
A method comprising: synchronizing a first local time of a first RF data collection device to an initial value of a common time source ; generating a first timestamp log file at the first RF data collection device , the first timestamp log file documenting offset amounts between a current value of the first local time and a current value of the common time source ; saving the first timestamp log file in a first memory device of the first RF data collection device ; collecting a first plurality of RF data from an RF network (N); recording, in the first memory device , the first plurality of RF data including first values of the first local time at which corresponding first RF signal components are recorded; and using the first timestamp log file to normalize the first values of the first local time to corresponding values of the common time source for comparison with a second plurality of RF data recorded by a second RF data collection device . synchronizing a first local time of a first RF data collection device to an initial value of a common time source ; generating a first timestamp log file at the first RF data collection device , the first timestamp log file documenting offset amounts between a current value of the first local time and a current value of the common time source ; saving the first timestamp log file in a first memory device of the first RF data collection device ; collecting a first plurality of RF data from an RF network (N); recording, in the first memory device , the first plurality of RF data including first values of the first local time at which corresponding first RF signal components are recorded; and using the first timestamp log file to normalize the first values of the first local time to corresponding values of the common time source for comparison with a second plurality of RF data recorded by a second RF data collection device .
A cam clutch comprising: an inner race and an outer race that are coaxial and rotatable relative to each other; a plurality of cams circumferentially arranged at intervals between the inner race and the outer race ; a biasing means biasing each of the plurality of cams so that each of the plurality of cams makes contact with the inner race and the outer race ; and an operating mode switch means including a cam attitude change part that is drivable independently of rotation of the inner race and the outer race to forcibly tilt the cams , characterized in that a load support point (Sp) is located radially between a load application point (Ap) of the cam attitude change part on the cam and a distal contact point (Ep) of the cam on a raceway that is one of the inner race and the outer race positioned on a radially distal side relative to the load application point (Ap), a radial distance (d1) between the load application point (Ap) and the load support point (Sp) being larger than a radial distance (d2) between the load support point (Sp) and the distal contact point (Ep), and the cams are tilted around the load support point (Sp) as the center of rotation when the cam attitude change part moves. an operating mode switch means including a cam attitude change part that is drivable independently of rotation of the inner race and the outer race to forcibly tilt the cams , characterized in that a load support point (Sp) is located radially between a load application point (Ap) of the cam attitude change part on the cam and a distal contact point (Ep) of the cam on a raceway that is one of the inner race and the outer race positioned on a radially distal side relative to the load application point (Ap), a radial distance (d1) between the load application point (Ap) and the load support point (Sp) being larger than a radial distance (d2) between the load support point (Sp) and the distal contact point (Ep), and the cams are tilted around the load support point (Sp) as the center of rotation when the cam attitude change part moves.
A bypass switch comprising: a vacuum valve having a fixed contact and a movable contact ; an insulating rod having one end side connected to the movable contact ; a closing spring having a closing function and a contact-pressing function, and fitted to another end side of the insulating rod ; a lever having one end side rotatably supported by a support member , another end side at which an engagement part (C) is formed, and an intermediate part coupled with the other end side of the insulating rod ; a latch formed by a round-bar member a part of which along a longitudinal direction is cut so as to have a semicircular cross section, and rotatably supported by the support member , such that the latch can be engaged with and be detached from the engagement part (C) of the lever by being turned around an axis in the longitudinal direction; and a solenoid to rotationally drive the latch around the axis, wherein a combination of the lever , the latch , and the solenoid composes an operation unit, the insulating rod , the closing spring , and the operation unit are arranged in series along an axial direction of the vacuum valve , a contact-opened state is kept by the latch being engaged with the engagement part (C) of the lever , and the closing spring is released to perform contact closing by the engagement being cancelled by excitation of the solenoid . a vacuum valve having a fixed contact and a movable contact ; an insulating rod having one end side connected to the movable contact ; a closing spring having a closing function and a contact-pressing function, and fitted to another end side of the insulating rod ; a lever having one end side rotatably supported by a support member , another end side at which an engagement part (C) is formed, and an intermediate part coupled with the other end side of the insulating rod ; a latch formed by a round-bar member a part of which along a longitudinal direction is cut so as to have a semicircular cross section, and rotatably supported by the support member , such that the latch can be engaged with and be detached from the engagement part (C) of the lever by being turned around an axis in the longitudinal direction; and a solenoid to rotationally drive the latch around the axis, wherein a combination of the lever , the latch , and the solenoid composes an operation unit, the insulating rod , the closing spring , and the operation unit are arranged in series along an axial direction of the vacuum valve , a contact-opened state is kept by the latch being engaged with the engagement part (C) of the lever , and the closing spring is released to perform contact closing by the engagement being cancelled by excitation of the solenoid .
An aluminum alloy sheet, comprising Cu 0.45-0.65 wt. %, Fe 0-0.40 wt. %, Mg 0.40-0.90 wt. %, Mn 0-0.40 wt. %, Si 0.52 - 0.58 wt. %, Cr 0-0.2 wt. %, Zn 0 - 0.1 wt. %, Ti 0-0.20 wt. %, Zr 0-0.2 wt. %, Sc 0-0.2 wt. %, and V 0-0.2 wt. %, with trace element impurities 0.10 wt. % maximum, remainder Al.