mhurhangee/ep-ind-claims huggingface dataset:
A boost pump unit for an aircraft fuel system comprising: a liquid ring pump having an inlet and an outlet; an air/fuel separator having an inlet and first and second outlet ports, the inlet operably fluidly coupled to the outlet of the liquid ring pump, the air/fuel separator having an arcuate flow path extending from the inlet to the first and second outlet ports, wherein the first outlet port is in fluid communication with a radially outer portion of the arcuate flow path and the second outlet port is in fluid communication with a radially inner portion of the arcuate flow path; a return line connected to the first outlet port and configured to return fuel to the liquid ring pump. a liquid ring pump having an inlet and an outlet; an air/fuel separator having an inlet and first and second outlet ports, the inlet operably fluidly coupled to the outlet of the liquid ring pump, the air/fuel separator having an arcuate flow path extending from the inlet to the first and second outlet ports, wherein the first outlet port is in fluid communication with a radially outer portion of the arcuate flow path and the second outlet port is in fluid communication with a radially inner portion of the arcuate flow path; a return line connected to the first outlet port and configured to return fuel to the liquid ring pump.
A soluble β-glucan and an antibody preparation capable of converting a subject from a low binder to a high binder for use in improving β-glucan immunotherapy for a subject being an identified low binder, wherein the soluble β-glucan and the antibody preparation capable of converting the subject from a low binder to a high binder are co-administered; wherein the antibody preparation comprises a monoclonal antibody that specifically binds the soluble β-glucan; and wherein the subject has been identified as a low binder by a method which comprises: measuring the anti-β-glucan antibody titer of at least a portion of a blood sample obtained from the subject, the blood sample comprising an anti-β-glucan antibody titer; and identifying the subject as a low binder if the anti-β-glucan IgG antibody titer is less than 20,000; or adding soluble β-glucan to at least a portion of a blood sample obtained from the subject, the blood sample comprising immune cells, and incubating the mixture under conditions allowing the soluble β-glucan to bind to the immune cells; detecting soluble β-glucan bound to the immune cells; and identifying the subject as a low binder if β-glucan is bound to no more than 10% of the immune cells, wherein the soluble β-glucan is derived from yeast and is composed of glucose monomers organized as a β-(1,3)-linked glucopyranose backbone with periodic β-(1,3) glucopyranose branches linked to the backbone via β-(1,6) glycosidic linkage. measuring the anti-β-glucan antibody titer of at least a portion of a blood sample obtained from the subject, the blood sample comprising an anti-β-glucan antibody titer; and identifying the subject as a low binder if the anti-β-glucan IgG antibody titer is less than 20,000; or adding soluble β-glucan to at least a portion of a blood sample obtained from the subject, the blood sample comprising immune cells, and incubating the mixture under conditions allowing the soluble β-glucan to bind to the immune cells;
A method in a User Equipment, UE, for wireless communications, comprising: receiving M configuration information blocks via an air interface prior to transmitting a first radio signal (S202, S502), the M configuration information blocks respectively indicating M reference signals; receiving the M reference signals (S21, S51); transmitting the first radio signal (S22, S52), the first radio signal indicating a first reference signal out of the M reference signals; and monitoring a first signaling in each time-frequency resource block of W time-frequency resource block(s) (S23, S53); wherein measurements on the M reference signals are used to determine the first reference signal; at least one reference signal of the M reference signals is transmitted by a first serving cell, and the first serving cell is not added by the UE; the UE assumes that a transmission antenna port of the first signaling is Quasi-Co-Located with a transmission antenna port of the first reference signal; W is a positive integer, and M is a positive integer greater than 1; CRC of the first signaling is scrambled by a C-RNTI; the first radio signal is transmitted on a second serving cell, and the second serving cell is added by the UE; the first serving cell is not a PCell of the UE; the meaning of the phrase that the first serving cell is not added by the UE includes that the UE is not assigned an SCellIndex nor a ServCellIndex for the first serving cell; the meaning of the phrase that the second serving cell is added by the UE includes that the UE is assigned an SCellIndex or a ServCellIndex for the second serving cell. receiving M configuration information blocks via an air interface prior to transmitting a first radio signal (S202, S502), the M configuration information blocks respectively indicating M reference signals; receiving the M reference signals (S21, S51); transmitting the first radio signal (S22, S52), the first radio signal indicating a first reference signal out of the M reference signals; and monitoring a first signaling in each time-frequency resource block of W time-frequency resource block(s) (S23, S53); wherein measurements on the M reference signals are used to determine the first reference signal; at least one reference signal of the M reference signals is transmitted by a first serving cell, and the first serving cell is not added by the UE; the UE assumes that a transmission antenna port of the first signaling is Quasi-Co-Located with a transmission antenna port of the first reference signal; W is a positive integer, and M is a positive integer greater than 1; CRC of the first signaling is scrambled by a C-RNTI; the first radio signal is transmitted on a second serving cell, and the second serving cell is added by the UE; the first serving cell is not a PCell of the UE; the meaning of the phrase that the first serving cell is not added by the UE includes that the UE is not assigned an SCellIndex nor a ServCellIndex for the first serving cell; the meaning of the phrase that the second serving cell is added by the UE includes that the UE is assigned an SCellIndex or a ServCellIndex for the second serving cell.
A dried implant composition consisting essentially of a mixture of nanocrystalline hydroxyapatite particles derived from natural bone having a size of 50 to 200 μm and fragments of naturally crosslinked fibrous collagen material that pass through a 0.5 mm sieve, whereby the w/w ratio of hydroxyapatite to collagen is from 1.8 to 4.5.
Direct or indirect metal pipe extrusion method, in which a metal block is pressed through a die and over a mandrel to form a metal pipe, wherein the mandrel comprises two pressing surfaces (63, 64) possessing different radial forms and arranged so as to be offset axially and is positioned selectively in two pressing positions axially with respect to the die, in such a manner that, in the first of the two pressing positions, the first of the two pressing surfaces (63, 64) and, in the second of the two pressing positions, the second of the two pressing surfaces (63, 64) has a forming effect on the workpiece pressed from the metal block into the metal pipe, characterized in that the mandrel comprises a transition area between the two pressing surfaces (63, 64) and comprises a support surface in the transition area, wherein the workpiece is supported by the support surface on the side of the mandrel at the axial level of the die while the mandrel is positioned with respect to the die from the first pressing position to the second pressing position, and wherein the support by means of the support surface only occurs after the workpiece has formed a free surface with respect to the mandrel.
A method for executing code of an application of an application package comprising a first version and a second version of the application, the first version intended to be executed on a genuine device and the second version intended to be executed on a jailbroken device, the method comprising in a device: determining by at least one hardware processor a jailbreak status of the device; computing by the at least one hardware processor an integrity value for the code; deriving by the at least one hardware processor a decryption key based on at least the jailbreak status and the integrity value; and in case the jailbreak status indicates that the device is genuine: decrypting by the at least one hardware processor using the decryption key at least a first part of the first version stored in a memory of the device to obtain a first processed part; and executing, by the at least one hardware processor using the first processed part, the first version; and in case the jailbreak status indicates that the device is jailbroken: decrypting by the at least one hardware processor using the decryption key at least a second part of the second version stored in the memory to obtain a second processed part; and executing by the at least one hardware processor the second processed part. determining by at least one hardware processor a jailbreak status of the device; computing by the at least one hardware processor an integrity value for the code; deriving by the at least one hardware processor a decryption key based on at least the jailbreak status and the integrity value; and in case the jailbreak status indicates that the device is genuine: decrypting by the at least one hardware processor using the decryption key at least a first part of the first version stored in a memory of the device to obtain a first processed part; and executing, by the at least one hardware processor using the first processed part, the first version; and in case the jailbreak status indicates that the device is jailbroken: decrypting by the at least one hardware processor using the decryption key at least a second part of the second version stored in the memory to obtain a second processed part; and executing by the at least one hardware processor the second processed part. decrypting by the at least one hardware processor using the decryption key at least a second part of the second version stored in the memory to obtain a second processed part; and executing by the at least one hardware processor the second processed part.
An apparatus for preparing a patient for radiation treatment in a radiation device that directs a radiation beam to a machine isocenter, the apparatus comprising: a wireless marker configured to be implanted in the patient relative to a target, wherein the marker is energized or excited by an excitation source positioned exterior of the patient to produce a marker signal; a plurality of sensors arranged in a fixed known geometry relative to each other and configured to measure the marker signal to obtain position information about the marker: a reference device positionable at a selected position relative to the radiation device and the machine isocenter, wherein the reference device is configured to produce a reference signal measurable by the plurality of sensors; a movable patient support having a platform and a drive system to move the platform, wherein the platform is configured to situate the patient so that the marker can be sensed by the sensors and the radiation beam can irradiate the patient; and a computer including computer operable instructions that cause the computer to perform the method of (a) receiving position information of the marker provided by the sensors, (b) determining a location of the marker relative to the sensors using the position information, and (c) computing a displacement between the location of the marker and a simulated location for the marker. a wireless marker configured to be implanted in the patient relative to a target, wherein the marker is energized or excited by an excitation source positioned exterior of the patient to produce a marker signal; a plurality of sensors arranged in a fixed known geometry relative to each other and configured to measure the marker signal to obtain position information about the marker: a reference device positionable at a selected position relative to the radiation device and the machine isocenter, wherein the reference device is configured to produce a reference signal measurable by the plurality of sensors; a movable patient support having a platform and a drive system to move the platform, wherein the platform is configured to situate the patient so that the marker can be sensed by the sensors and the radiation beam can irradiate the patient; and a computer including computer operable instructions that cause the computer to perform the method of (a) receiving position information of the marker provided by the sensors, (b) determining a location of the marker relative to the sensors using the position information, and (c) computing a displacement between the location of the marker and a simulated location for the marker.
An arbitration method comprising: monitoring, by a preferred data center in real time, whether communication between the preferred data center and an arbitration device is interrupted; monitoring, by the preferred data center in real time, whether communication between a non-preferred data center and the arbitration device is interrupted; setting, by the preferred data center, a first arbitration device flag bit according to a monitoring result based on whether communication between the preferred data center and the arbitration device is interrupted and whether communication between the non-preferred data center and the arbitration device is interrupted, wherein the arbitration device flag bit indicates whether the arbitration device can perform arbitration; determining, by the preferred data center according to the first arbitration device flag bit, an arbitration device cannot perform arbitration, wherein the arbitration device is one of a disaster recovery device, a cloud server or a virtual machine in a cloud; determining, by the preferred data center, communication between the preferred data center and the non-preferred data center is interrupted, wherein the preferred data center and the non-preferred data center are active-active data centers; and continue providing, by the preferred data center, a service. monitoring, by a preferred data center in real time, whether communication between the preferred data center and an arbitration device is interrupted; monitoring, by the preferred data center in real time, whether communication between a non-preferred data center and the arbitration device is interrupted; setting, by the preferred data center, a first arbitration device flag bit according to a monitoring result based on whether communication between the preferred data center and the arbitration device is interrupted and whether communication between the non-preferred data center and the arbitration device is interrupted, wherein the arbitration device flag bit indicates whether the arbitration device can perform arbitration; determining, by the preferred data center according to the first arbitration device flag bit, an arbitration device cannot perform arbitration, wherein the arbitration device is one of a disaster recovery device, a cloud server or a virtual machine in a cloud; determining, by the preferred data center, communication between the preferred data center and the non-preferred data center is interrupted, wherein the preferred data center and the non-preferred data center are active-active data centers; and continue providing, by the preferred data center, a service.
A process for purification of recombinant human lysosomal alpha-mannosidase from a cell culture, wherein a fraction of said cell culture comprising recombinant human lysosomal alpha-mannosidase is subjected to chromatography on a resin comprising a multi-modal ligand, wherein said resin bound multi-modal ligand is a substance having a carboxylic acid or sulphonic acid group, wherein said process results in a composition comprising purified alpha-mannosidase characterized in that at least 80% of the alpha-mannosidase is present as a 130 kDa glycoprotein.
A compound represented by the following formula: wherein R 1a, R 1b, R 1c, R 1d, and R 1e each independently represents a hydrogen atom or a monovalent substituent other than OH with a proviso that at least one substituent has a positive σp value in Hammett equation and substituents may be coupled to each other to form a ring; R 1f, R 1g, R 1h, R 1i, and R 1j each independently represents a hydrogen atom or a monovalent substituent other than OH with a proviso that substituents may be coupled to each other to form a ring; and R 1k, R 1m, R 1n, and R 1p each independently represents a hydrogen atom or a monovalent substituent with a proviso that substituents may be coupled to each other to form a ring, and wherein both R 1c and R 1h are substituents having a positive σp value in the Hammett equation.
A method for deriving data related to an RFID tag, comprising: transmitting RFID tag interrogation signals to an RFID tag; digitizing the signals received by each antenna element of an array of antenna elements from the RFID tag in response to the interrogation signals; performing signal processing on the digitized signals to determine relative phase and weight differences between the signals received by each of the antenna elements in the array of antenna elements from the RFID tag in response to the interrogation signals; delaying the digitized signals received from each of the antenna elements to compensate for any accumulated delay; adjusting the relative phases and weights of the digitized signals to form phase aligned and amplitude weighted signals; combining the adjusted signals to form a weighted combination of the phase aligned and amplitude weighted digitized signals, and deriving data related to the RFID tag from the weighted combination of the phase aligned and amplitude weighted digitized signals. transmitting RFID tag interrogation signals to an RFID tag; digitizing the signals received by each antenna element of an array of antenna elements from the RFID tag in response to the interrogation signals; performing signal processing on the digitized signals to determine relative phase and weight differences between the signals received by each of the antenna elements in the array of antenna elements from the RFID tag in response to the interrogation signals; delaying the digitized signals received from each of the antenna elements to compensate for any accumulated delay; adjusting the relative phases and weights of the digitized signals to form phase aligned and amplitude weighted signals; combining the adjusted signals to form a weighted combination of the phase aligned and amplitude weighted digitized signals, and deriving data related to the RFID tag from the weighted combination of the phase aligned and amplitude weighted digitized signals.
Instrument for the removal of a bone insert, for example for a shoulder prosthesis, comprising: - a stem-like body extending along a longitudinal axis (x-x) and provided with a proximal grip; - a distal operating head slidably associated with the stem-like body for movement towards and away from each other; - a cutting element inside said operating head; and - an end tip projecting coaxially from said operating head, - a pushing mechanism, inserted inside said operating head and acting on said cutting element so as to displace it angularly from a rest position, where it is concealingly housed inside said end tip, to an operative position, where it projects in a cantilever manner through a side opening in the end tip; said cutting element having a blade extending substantially in a direction transverse to said longitudinal axis (x-x) when in the operative position; the instrument being characterised in that - a resilient element is arranged between the operating head and the stem for constantly biasing the operating head and the stem away from each other and said cutting element towards said rest position. - a stem-like body extending along a longitudinal axis (x-x) and provided with a proximal grip; - a distal operating head slidably associated with the stem-like body for movement towards and away from each other; - a cutting element inside said operating head; and - an end tip projecting coaxially from said operating head, - a pushing mechanism, inserted inside said operating head and acting on said cutting element so as to displace it angularly from a rest position, where it is concealingly housed inside said end tip, to an operative position, where it projects in a cantilever manner through a side opening in the end tip; said cutting element having a blade extending substantially in a direction transverse to said longitudinal axis (x-x) when in the operative position; the instrument being characterised in that - a resilient element is arranged between the operating head and the stem for constantly biasing the operating head and the stem away from each other and said cutting element towards said rest position.
Aqueous composition for colouring keratin fibres especially human hair, based on at least one oxidative dye precursor, optionally at least one coupling agent and/or at least one direct dye in a cosmetically acceptable medium characterised in that it comprises at least one grafted aminated silicone polymer obtained from organopolysiloxanes and polyethyl oxazolines with an oxazoline content of 60% by weight and with an organopolysiloxane content of 40% by weight, all values are calculated to total of the molecule.
A method for powder coating a plastic or glass article, comprising the following steps: the forming of a polar coating on the plastic or glass article, comprising the substeps of aging a coating composition for a duration of at least 12 hours and of applying the coating composition to the plastic or glass article, the applying of a powder coating material to the thus-coated plastic or glass article, and the heating of the powder coating material to a temperature of 100 to 250°C, wherein the coating composition comprises an organosiloxane having at least two Si-O bonds, water, an organic solvent, and a pH regulator, selected from a Bronsted acid, in a catalytic amount, with the proviso that the coating composition contains no electrically conductive additive selected from ionic compounds, metals, (mixed) metal oxides, intermetallic compounds, and conductive carbon. the forming of a polar coating on the plastic or glass article, comprising the substeps of aging a coating composition for a duration of at least 12 hours and of applying the coating composition to the plastic or glass article, of aging a coating composition for a duration of at least 12 hours and of applying the coating composition to the plastic or glass article, the applying of a powder coating material to the thus-coated plastic or glass article, and the heating of the powder coating material to a temperature of 100 to 250°C, wherein the coating composition comprises an organosiloxane having at least two Si-O bonds, water, an organic solvent, and a pH regulator, selected from a Bronsted acid, in a catalytic amount, with the proviso that the coating composition contains no electrically conductive additive selected from ionic compounds, metals, (mixed) metal oxides, intermetallic compounds, and conductive carbon.