mhurhangee/ep-ind-claims huggingface dataset:
A method of pre-separating a sample, the sample comprising sample molecules (1772, 1774),the method comprising: subjecting the sample molecules to a first ionization to cause a subset of the sample molecules to form first product ions, the remaining sample molecules that did not ionize in the first ionization forming a first un-ionized group of sample molecules; separating the first product ions from the first un-ionized group of sample molecules; subsequent to separating the first product ions, subjecting the first un- ionized group of sample molecules to a second ionization to cause a subset of the first un-ionized group of sample molecules to form second product ions, the remaining first un-ionized group of sample molecules that did not ionize in the second ionization forming a second un-ionized group of sample molecules; and separating the second product ions from the second unionized group of sample molecules. subjecting the sample molecules to a first ionization to cause a subset of the sample molecules to form first product ions, the remaining sample molecules that did not ionize in the first ionization forming a first un-ionized group of sample molecules; separating the first product ions from the first un-ionized group of sample molecules; subsequent to separating the first product ions, subjecting the first un- ionized group of sample molecules to a second ionization to cause a subset of the first un-ionized group of sample molecules to form second product ions, the remaining first un-ionized group of sample molecules that did not ionize in the second ionization forming a second un-ionized group of sample molecules; and separating the second product ions from the second unionized group of sample molecules.
A policy decision point, PDP, arranged for interacting with a computer system comprising a plurality of resources, to which subjects' access is controlled by corresponding policy enforcement points, PEPs, the PDP being configured to: obtain an access request from a PEP; analyze the obtained access request; and evaluate the access request for obtaining an access decision to be returned to and enforced by the PEP, wherein the PDP is characterized by being configured to: obtain the access request through an end point address of a plurality of end point addresses (302a-c) of the PDP; determine, based on the end point address (302a-c) receiving the access request, an associated one of at least two policy packages stored by the PDP; and evaluate the access request against the policy package thus determined, thereby obtaining an access decision to be returned to and enforced by the PEP. obtain an access request from a PEP; analyze the obtained access request; and evaluate the access request for obtaining an access decision to be returned to and enforced by the PEP, wherein the PDP is characterized by being configured to: obtain the access request through an end point address of a plurality of end point addresses (302a-c) of the PDP; determine, based on the end point address (302a-c) receiving the access request, an associated one of at least two policy packages stored by the PDP; and evaluate the access request against the policy package thus determined, thereby obtaining an access decision to be returned to and enforced by the PEP. obtain the access request through an end point address of a plurality of end point addresses (302a-c) of the PDP; determine, based on the end point address (302a-c) receiving the access request, an associated one of at least two policy packages stored by the PDP; and evaluate the access request against the policy package thus determined, thereby obtaining an access decision to be returned to and enforced by the PEP.
A control method for a blood purification system, inter alia consisting of at least one blood inlet/outlet element, preferably a shunt, and a blood purification apparatus to which the blood inlet/outlet element is connected or can be connected, the control method being adapted, for determining a recirculation during an extracorporeal treatment of the blood by means of the blood purification system and on the basis of the system response to an alteration of a system-related operating value, to carry out the following method steps: - determining a reference value, which can be derived from the contamination of a dialysis liquid, for a system-related operational state or a system-related operating value for which - as is known - there is no recirculation or the recirculation is known in advance, - operating the system at a desired system-related target operational state or at a desired system-related target operational value, being adapted for a treatment of a patient, and determining a current value, which can be derived from the contamination of the dialysis liquid, for the system-related target operational state or the system-related target operational value, - determining an ideal value, which can be derived from the contamination of the dialysis liquid, for the system-related target operational state or the system-related target operational value, for which there is no recirculation in the ideal case, and - calculating the true recirculation for the system-related target operational state or the system-related target operational value directly or indirectly from the current value and the ideal value. - determining a reference value, which can be derived from the contamination of a dialysis liquid, for a system-related operational state or a system-related operating value for which - as is known - there is no recirculation or the recirculation is known in advance, - operating the system at a desired system-related target operational state or at a desired system-related target operational value, being adapted for a treatment of a patient, and determining a current value, which can be derived from the contamination of the dialysis liquid, for the system-related target operational state or the system-related target operational value, - determining an ideal value, which can be derived from the contamination of the dialysis liquid, for the system-related target operational state or the system-related target operational value, for which there is no recirculation in the ideal case, and - calculating the true recirculation for the system-related target operational state or the system-related target operational value directly or indirectly from the current value and the ideal value.
Apparatus for the additive manufacturing of three-dimensional objects by successive, layer-by-layer, selective exposure, and an accompanying successive, layer-by-layer, selective solidification of construction material layers of a construction material solidifyable by means of an energy beam, containing: a process chamber including an operation plane, which includes a first operation plane region including a construction plane, and another operation plane region, in which at least part of a coating means is arranged, a coating means configured for the formation of construction material layers that are to be selectively exposed and selectively solidified in the construction plane, and which includes a coating component assembly including at least one coating element and movably-supported, in particular relative to the construction plane, via a guiding means, characterized by: a shielding means configured for the shielding of the second operation plane region prior to the introduction of construction material and/or contaminations which are caused process-related, wherein the shielding means includes at least one movably-guided shielding strap defining an interior space, wherein the coating component assembly is motion-coupled with the shielding strap and the guiding means guiding the coating component assembly is arranged or formed inside the interior space. a process chamber including an operation plane, which includes a first operation plane region including a construction plane, and another operation plane region, in which at least part of a coating means is arranged, a coating means configured for the formation of construction material layers that are to be selectively exposed and selectively solidified in the construction plane, and which includes a coating component assembly including at least one coating element and movably-supported, in particular relative to the construction plane, via a guiding means, characterized by: a shielding means configured for the shielding of the second operation plane region prior to the introduction of construction material and/or contaminations which are caused process-related, wherein the shielding means includes at least one movably-guided shielding strap defining an interior space, wherein the coating component assembly is motion-coupled with the shielding strap and the guiding means guiding the coating component assembly is arranged or formed inside the interior space.
A method for calculating a physical address based on a received virtual address, comprising: calculating, by a device, an offset value based on the received virtual address, the offset value being equal to the received virtual address minus a base address; determining, by the device and when the offset value is negative, that the received virtual address is outside a predetermined range; comparing, by the device and when the offset value is zero or positive, the offset value to a length value, the received virtual address being outside the predetermined range when the offset value is greater than the length value, and the received virtual address being within the predetermined range when the offset value equals zero or when the offset value is less than the length value; determining, by the device and when the received virtual address is within the predetermined range, whether an access type associated with the received virtual address is permitted; calculating, by the device, the physical address via a first processing path when the access type is not permitted or when the received virtual address is outside the predetermined range; and calculating (570,580), by the device, the physical address, via a second processing path and based on the offset value and a relocation value, when the access type is permitted, the second processing path being faster than the first processing path. calculating, by a device, an offset value based on the received virtual address, the offset value being equal to the received virtual address minus a base address; determining, by the device and when the offset value is negative, that the received virtual address is outside a predetermined range; comparing, by the device and when the offset value is zero or positive, the offset value to a length value, the received virtual address being outside the predetermined range when the offset value is greater than the length value, and the received virtual address being within the predetermined range when the offset value equals zero or when the offset value is less than the length value; determining, by the device and when the received virtual address is within the predetermined range, whether an access type associated with the received virtual address is permitted; calculating, by the device, the physical address via a first processing path when the access type is not permitted or when the received virtual address is outside the predetermined range; and calculating (570,580), by the device, the physical address, via a second processing path and based on the offset value and a relocation value, when the access type is permitted, the second processing path being faster than the first processing path.
A milling cutter comprising a tool body having an approximately cylindrical or disk-like shape and a plurality of edge portions provided on at least an outer peripheral portion of one end of the tool body at predetermined intervals along a circumferential direction, at least one of the edge portions having a major cutting edge and a minor cutting edge performing an operation of cutting a workpiece, the major cutting edge being positioned outside the minor cutting edge in a radial direction, the minor cutting edge having a cutting edge angle (θb) with respect to a plane orthogonal to a center axis of the tool body, and the cutting edge angle (θb) being an elevation angle open outward in the radial direction, characterized in that a length of the minor cutting edge is in a range of 2 mm to 4 mm and the cutting edge angle (θb) of the minor cutting edge is in a range of 0.025 degree to 0.11 degree.
A system for connecting electronic components, comprising: at least one base; at least one connecting member (17A, 17B) coupled to the base, thereby forming a connection module, the connection module being configured to physically and electrically connect a first electronic component with a second electronic component; an array bracket configured to at least partially receive the connection module, the array bracket further configured to at least partially receive a plurality of additional connection modules; and a first electrical port and a second electrical port coupled to the array bracket. at least one base; at least one connecting member (17A, 17B) coupled to the base, thereby forming a connection module, the connection module being configured to physically and electrically connect a first electronic component with a second electronic component; an array bracket configured to at least partially receive the connection module, the array bracket further configured to at least partially receive a plurality of additional connection modules; and a first electrical port and a second electrical port coupled to the array bracket.
An inter-axial inline fluid heater comprising: an outer retaining sheath defining a first area, said outer retaining sheath having a first end and a second end; an interior flow tube disposed within said outer sheath and capable of having fluid flow therethrough, said interior flow tube having a first end extending beyond said first end of said outer retaining sheath, said interior flow tube having a second end extending beyond said second end of said outer retaining sheath; a resistance wire having a first power lead at a first end and a second power lead at a second end thereof, said resistance wire disposed between said interior flow tube and said outer retaining sheath, said resistance wire capable of producing heat for heating a fluid passing through said interior flow tube when power is applied to said resistance wire; and a compacted granular dielectric heat transfer material disposed between said interior flow tube and said outer retaining sheath and surrounding at least a portion of said resistance wire, wherein said granular dielectric heat transfer material is compacted to provide greater heat transfer characteristics. an outer retaining sheath defining a first area, said outer retaining sheath having a first end and a second end; an interior flow tube disposed within said outer sheath and capable of having fluid flow therethrough, said interior flow tube having a first end extending beyond said first end of said outer retaining sheath, said interior flow tube having a second end extending beyond said second end of said outer retaining sheath; a resistance wire having a first power lead at a first end and a second power lead at a second end thereof, said resistance wire disposed between said interior flow tube and said outer retaining sheath, said resistance wire capable of producing heat for heating a fluid passing through said interior flow tube when power is applied to said resistance wire; and a compacted granular dielectric heat transfer material disposed between said interior flow tube and said outer retaining sheath and surrounding at least a portion of said resistance wire, wherein said granular dielectric heat transfer material is compacted to provide greater heat transfer characteristics.
Method for operating a motor vehicle with an on-board electrical network which has at least one semiconductor switch which is loaded with loading events on account of at least one loading-influencing factor during the operation of the motor vehicle and for which a lifetime-loading relationship is predefined, which specifies a nominal lifetime for a nominal loading and by means of which for at least one point in time within the nominal lifetime a nominal loading portion corresponding to the at least one point in time is determinable, and wherein the method comprises for the at least one point in time: determining an actual loading of the at least one semiconductor switch on the basis of an ascertainment of previous loading events at the at least one point in time, determining the nominal loading portion corresponding to the at least one point in time by means of the predefined lifetime-loading relationship, comparing the actual loading and the nominal loading portion at the at least one point in time and reducing the at least one loading-influencing factor if the actual loading exceeds the nominal loading portion at the at least one point in time by more than a predefined tolerance value, characterized in that the tolerance value is predefined on the basis of a temporal position of the at least one point in time within the nominal lifetime. determining an actual loading of the at least one semiconductor switch on the basis of an ascertainment of previous loading events at the at least one point in time, determining the nominal loading portion corresponding to the at least one point in time by means of the predefined lifetime-loading relationship, comparing the actual loading and the nominal loading portion at the at least one point in time and reducing the at least one loading-influencing factor if the actual loading exceeds the nominal loading portion at the at least one point in time by more than a predefined tolerance value, characterized in that the tolerance value is predefined on the basis of a temporal position of the at least one point in time within the nominal lifetime.
A nucleic acid comprising a modified Kozak sequence and a nucleotide sequence encoding adeno-associated virus viral protein 1, VP2, and VP3 capsid proteins, wherein the modified Kozak sequence contains an initiation codon for translation of the VP1 capsid protein, wherein the modified Kozak sequence is selected from any one of SEQ ID NOs: 2-11, and wherein the VP1, VP2, and VP3 capsid proteins are from an AAV5 serotype.
A method for operating an agricultural spreader, comprising: - providing a spreading material in a material reservoir of an agricultural spreader; - dosing the spreading material from the material reservoir through a dosing opening through which the spreading material is discharged from the material reservoir to a spreader device configured to receive and spread the dosed spreading material; - receiving the dosed spreading material by the spreader device; and - spreading the dosed spreading material by the spreader device; the method further comprising: - detecting digital image data by a monitoring device, the digital image data being indicative of a partial quantity of the spreading material received in the material reservoir and located in the vicinity of the dosing opening at the time of detecting the digital image data; and - determining a material parameter for the partial quantity of the spreading material located in the vicinity of the dosing opening from analyzing the digital image data by a control device. - providing a spreading material in a material reservoir of an agricultural spreader; - dosing the spreading material from the material reservoir through a dosing opening through which the spreading material is discharged from the material reservoir to a spreader device configured to receive and spread the dosed spreading material; - receiving the dosed spreading material by the spreader device; and - spreading the dosed spreading material by the spreader device; - detecting digital image data by a monitoring device, the digital image data being indicative of a partial quantity of the spreading material received in the material reservoir and located in the vicinity of the dosing opening at the time of detecting the digital image data; and - determining a material parameter for the partial quantity of the spreading material located in the vicinity of the dosing opening from analyzing the digital image data by a control device.
Surge arrester, in particular for arresting surges, having a housing and a disconnecting device, wherein the housing is subdivided into at least two housing parts and the disconnecting device connects the housing parts to one another, wherein the disconnecting device is configured, in the event of a fault, to interrupt an active conductor or connection path by disconnecting the housing parts, wherein in the case of a fault, a propellant charge in the disconnecting device is triggered, as a result of which the disconnecting device is disconnected in a defined manner and thus destroyed, such that the housing parts are disconnected from one another and pivot away from one another.
A method at a user equipment of managing bandwidth re-negotiations in association with channel switching when said user equipment is engaged in an Internet Protocol Television, IPTV, session on a first channel provided from an IPTV network, said method comprising: - applying a bandwidth re-negotiation procedure associated with a requested switch (201,210) from the first channel to a requested channel when it is determined that the requested channel requires less bandwidth than the first channel, wherein the bandwidth re-negotiation process comprises the steps of: - switching from the first channel to the requested channel, - starting, in response to said channel switching, a timer to a specific timer value, TimeToRenegotiation, TTR, and - delaying execution of the bandwidth re-negotiation associated with said switching to a timeout of the specific timer value, wherein the timer is re-started to the specific timer value, TTR, if an additional channel switch is requested before the timeout of the specific timer value, TTR. - applying a bandwidth re-negotiation procedure associated with a requested switch (201,210) from the first channel to a requested channel when it is determined that the requested channel requires less bandwidth than the first channel, wherein the bandwidth re-negotiation process comprises the steps of: - switching from the first channel to the requested channel, - starting, in response to said channel switching, a timer to a specific timer value, TimeToRenegotiation, TTR, and - delaying execution of the bandwidth re-negotiation associated with said switching to a timeout of the specific timer value, wherein the timer is re-started to the specific timer value, TTR, if an additional channel switch is requested before the timeout of the specific timer value, TTR.
A method of manufacturing a reflector for reflecting light of a light source in an LED lighting device to concentrate the light, comprising: producing an injection-molded plastic product using a mold; subjecting a surface of the injection-molded plastic product to ultrasonic cleaning to remove impurity having a size of 10 μ m or less; subjecting the surface of the injection-molded plastic product to plasma surface treatment to remove impurity having a size of 1 μ m or less; and heating of aluminum at 1500°C or more in a vacuum chamber of 10 -4 ∼ 10 -6 torr to create vapor of aluminum, depositing of vapor of aluminum in a form of an aluminum thin film on the surface of the injection-molded plastic product. producing an injection-molded plastic product using a mold; subjecting a surface of the injection-molded plastic product to ultrasonic cleaning to remove impurity having a size of 10 μ m or less; subjecting the surface of the injection-molded plastic product to plasma surface treatment to remove impurity having a size of 1 μ m or less; and heating of aluminum at 1500°C or more in a vacuum chamber of 10 -4 ∼ 10 -6 torr to create vapor of aluminum, depositing of vapor of aluminum in a form of an aluminum thin film on the surface of the injection-molded plastic product.