mhurhangee/patent-ind-claim-en huggingface dataset:
An aqueous solution consisting essentially of chlorhexidine gluconate at a concentration of less than 0.1 % for use in the reduction of biofilm formation in surgical implants, stents, catheters, or other indwelling medical devices at a site of infection in a subject, and wherein the site is selected from a) the sinuses, b) an intra-articular site, c) a cerebrospinal site, d) a urogenital tract, e) a respiratory tract, f) the colon, g) an intraperitoneal site, h) blood, and i) a mediastinal site. a) the sinuses, b) an intra-articular site, c) a cerebrospinal site, d) a urogenital tract, e) a respiratory tract, f) the colon, g) an intraperitoneal site, h) blood,
An apparatus comprising: a receiver comprising: a port to receive a flow control unit, Flit across a link , the link comprising a plurality of lanes; error detection circuitry to determine an error in the Flit , an error counter to count a number of errors received, the error counter to increment based on an error detected in the Flit by the error detection circuitry, a Flit counter to count a number of Flits received, the Flit counter to increment based on receiving a Flit , bit error rate logic to determine a bit error rate based on a count recorded by the error counter and a number of bits received as indicated by the Flit counter ; and at least one margin control and status register to activate and deactivate test modes. a port to receive a flow control unit, Flit across a link , the link comprising a plurality of lanes; error detection circuitry to determine an error in the Flit , an error counter to count a number of errors received, the error counter to increment based on an error detected in the Flit by the error detection circuitry, a Flit counter to count a number of Flits received, the Flit counter to increment based on receiving a Flit , bit error rate logic to determine a bit error rate based on a count recorded by the error counter and a number of bits received as indicated by the Flit counter ; and at least one margin control and status register to activate and deactivate test modes.
A pharmaceutical composition comprising a mixture of dextro- and levo-amphetamines complexed with ion-exchange resin to form drug-resin particles, wherein said composition comprises a first plurality of drug-resin particles that are not coated with a delayed release coating and a second plurality of drug-resin particles that are coated with a delayed release coating, and wherein the composition comprises 20%-50% by weight of the first plurality of drug-resin particles and 50-80% by weight of the second plurality of drug-resin particles.
Citrus fibers in dry form having a water holding capacity (WHC) of at least 35 mL of water per gram of anhydrous (0% moisture) fibers, the WHC being determined on an aqueous medium containing 1 wt% (relative to the total weight of said medium) of said fibers dispersed therein after subjecting said medium to a G force of 3000G, wherein the citrus fibers are produced by: a) providing an aqueous slurry of a source of citrus fibers, said slurry having a pH of between 2 and 9; b) homogenizing the aqueous slurry of a source of citrus fibers to obtain an aqueous slurry of citrus fibers; c) contacting the aqueous slurry of citrus fibers with an organic solvent to obtain a precipitate phase and a liquid phase; wherein the precipitate is in the form of granules; d) separating said precipitate phase from the liquid phase to obtain a semi-dry citrus fiber cake having a dry substance-content of at least 10 wt% relative to the mass of said cake; e) comminuting said cake to obtain grains containing citrus fibers; and f) desolventizing and/or dehydrating said semi-dry citrus fibers to obtain dry citrus fibers having a moisture content of preferably below 20 wt% relative to the total weight of the fibers. a) providing an aqueous slurry of a source of citrus fibers, said slurry having a pH of between 2 and 9; b) homogenizing the aqueous slurry of a source of citrus fibers to obtain an aqueous slurry of citrus fibers; c) contacting the aqueous slurry of citrus fibers with an organic solvent to obtain a precipitate phase and a liquid phase; wherein the precipitate is in the form of granules; d) separating said precipitate phase from the liquid phase to obtain a semi-dry citrus fiber cake having a dry substance-content of at least 10 wt% relative to the mass of said cake; e) comminuting said cake to obtain grains containing citrus fibers; and f) desolventizing and/or dehydrating said semi-dry citrus fibers to obtain dry citrus fibers having a moisture content of preferably below 20 wt% relative to the total weight of the fibers.
A cell differentiation system for differentiating cells, the system comprising - an input means for receiving a reconstructed image of a cell based on a holographic image of the cell in suspension, the input means being adapted for receiving holographic images from or comprising an imaging setup comprising a fluidic or microfluidic compartment adapted for receiving a suspension with the cells or a flow with the cells, as well as a holographic imaging means, and - a cell recognition means for determining cell recognition features from the reconstructed image of the cell for characterization of the cell, wherein the cell recognition means is configured for determining, as cell recognition features, image moments, the image moments being defined as m ij = ∑ x , y f x y . x i . y j and μ ij = ∑ x , y f x y . x − x ̅ i . y − y ̅ j where x ̅ = m 10 m 00 , y ̅ = m 01 m 00 , and η ij = μ ij μ 00 i + j / 2 + 1 wherein j and i are orders and wherein f ( x, y) is the pixel intensity of the digital image located at ( x, y ) - wherein the cell differentiation system is configured for differentiating the cells using the cell recognition features. - an input means for receiving a reconstructed image of a cell based on a holographic image of the cell in suspension, the input means being adapted for receiving holographic images from or comprising an imaging setup comprising a fluidic or microfluidic compartment adapted for receiving a suspension with the cells or a flow with the cells, as well as a holographic imaging means, and - a cell recognition means for determining cell recognition features from the reconstructed image of the cell for characterization of the cell, wherein the cell recognition means is configured for determining, as cell recognition features, image moments, the image moments being defined as m ij = ∑ x , y f x y . x i . y j and μ ij = ∑ x , y f x y . x − x ̅ i . y − y ̅ j where x ̅ = m 10 m 00 , y ̅ = m 01 m 00 , and η ij = μ ij μ 00 i + j / 2 + 1 wherein j and i are orders and wherein f ( x, y) is the pixel intensity of the digital image located at ( x, y ) wherein the cell recognition means is configured for determining, as cell recognition features, image moments, the image moments being defined as m ij = ∑ x , y f x y . x i . y j and μ ij = ∑ x , y f x y . x − x ̅ i . y − y ̅ j where x ̅ = m 10 m 00 , y ̅ = m 01 m 00 , and η ij = μ ij μ 00 i + j / 2 + 1 wherein j and i are orders and wherein f ( x, y) is the pixel intensity of the digital image located at ( x, y ) - wherein the cell differentiation system is configured for differentiating the cells using the cell recognition features.
A method implemented in a network node, the method comprising: receiving a random access preamble from a wireless device; scheduling a grant of a first uplink transmission opportunity and a second uplink transmission opportunity, wherein presence of the grant of the second uplink transmission opportunity indicates support for early data transmission; sending a random access response to the wireless device, the random access response indicating information associated with the grant of the first uplink transmission opportunity and the second uplink transmission opportunity; and receiving data from the wireless device via the first uplink transmission opportunity or the second uplink transmission opportunity; wherein the second uplink transmission opportunity allows early data transmission and more uplink data to be transmitted prior to completing a random access procedure than the first uplink transmission opportunity. receiving a random access preamble from a wireless device; scheduling a grant of a first uplink transmission opportunity and a second uplink transmission opportunity, wherein presence of the grant of the second uplink transmission opportunity indicates support for early data transmission; sending a random access response to the wireless device, the random access response indicating information associated with the grant of the first uplink transmission opportunity and the second uplink transmission opportunity; and receiving data from the wireless device via the first uplink transmission opportunity or the second uplink transmission opportunity; wherein the second uplink transmission opportunity allows early data transmission and more uplink data to be transmitted prior to completing a random access procedure than the first uplink transmission opportunity.
A control device for controlling an emergency brake pressure of a vehicle, comprising: - a pressure regulator configured to regulate a pilot pressure VSD1 for normal operation, the VSD1 being determined in advance dependent on a load condition of the vehicle, a deceleration, a speed and/or a coefficient of friction, - an adjusting device configured to control a safety pilot pressure SVSD in the event of a system malfunction, - a pressure converter , comprising: - a pressure inlet for a pneumatic or hydraulic pressure supply, - at least one pressure inlet for at least one pilot pressure, - a pressure outlet for an emergency brake pressure, the pressure converter being configured to control a supply pressure of the pressure supply from the pilot pressure VSD1 or SVSD and then to output it as the emergency brake pressure, the control device being configured in such a manner that in normal operation the VSD1 alone is fed to the pressure converter to control the supply pressure, and in the event of a system malfunction the SVSD alone is fed to the pressure converter to control the supply pressure, it being ensured that the emergency brake pressure remains below a nominal pressure in the event of a system malfunction. - a pressure regulator configured to regulate a pilot pressure VSD1 for normal operation, the VSD1 being determined in advance dependent on a load condition of the vehicle, a deceleration, a speed and/or a coefficient of friction, - an adjusting device configured to control a safety pilot pressure SVSD in the event of a system malfunction, - a pressure converter , comprising: - a pressure inlet for a pneumatic or hydraulic pressure supply, - at least one pressure inlet for at least one pilot pressure, - a pressure outlet for an emergency brake pressure, - a pressure inlet for a pneumatic or hydraulic pressure supply, - at least one pressure inlet for at least one pilot pressure, - a pressure outlet for an emergency brake pressure, the pressure converter being configured to control a supply pressure of the pressure supply from the pilot pressure VSD1 or SVSD and then to output it as the emergency brake pressure, the control device being configured in such a manner that in normal operation the VSD1 alone is fed to the pressure converter to control the supply pressure, and in the event of a system malfunction the SVSD alone is fed to the pressure converter to control the supply pressure, it being ensured that the emergency brake pressure remains below a nominal pressure in the event of a system malfunction.
A determination system for determining a sleep stage of a subject, wherein the determination system comprises: - a cardiorespiratory signal providing unit for providing a cardiorespiratory signal of the subject, - an actigraphy data providing unit for providing actigraphy data of the subject, - a first sleep stage determination unit for determining the sleep stage of the subject based on the cardiorespiratory signal of the subject, - wherein the first sleep stage determination unit is configured to determine a sleep onset latency of the subject, characterized in that the system further comprises - a second sleep stage determination unit for determining the sleep stage of the subject based on the actigraphy data of the subject, and - a determination control unit for determining one out of the first sleep stage determination unit and the second sleep stage determination unit for determining the sleep stage of the subject, wherein the determination control unit is configured to determine the sleep stage of the subject using the first sleep stage determination unit up to the sleep onset latency and to determine the sleep stage of the subject using the second sleep stage determination unit after the sleep onset latency. - a cardiorespiratory signal providing unit for providing a cardiorespiratory signal of the subject, - an actigraphy data providing unit for providing actigraphy data of the subject, - a first sleep stage determination unit for determining the sleep stage of the subject based on the cardiorespiratory signal of the subject, - wherein the first sleep stage determination unit is configured to determine a sleep onset latency of the subject, characterized in that the system further comprises - a second sleep stage determination unit for determining the sleep stage of the subject based on the actigraphy data of the subject, and - a determination control unit for determining one out of the first sleep stage determination unit and the second sleep stage determination unit for determining the sleep stage of the subject,
An electron beam apparatus comprising: a dual-lens electron gun for emitting an electron beam; a controller for operating the electron gun in first and second operating modes; wherein the electron beam comprises a high beam-current electron beam in the first operating mode and a low beam-current electron beam in the second operating mode; wherein the dual-lens electron gun comprises: an electron emission system for emitting electrons; a first gun lens for focusing the electrons from the electron emission system to form the electron beam; a beam limiting aperture through which passes the electron beam focused by the first gun lens; and a second gun lens for focusing the electron beam after the electron beam passes through the beam limiting aperture ; and wherein the first gun lens is on and the second gun lens is off in the first operating mode, and the first gun lens is off and the second gun lens is on in the second operating mode, characterized in that the electron beam apparatus further comprises a column aperture which is out of the path of the high beam-current electron beam in the first operating mode and is centered about an optical axis of the electron beam apparatus in the second operating mode. a dual-lens electron gun for emitting an electron beam; a controller for operating the electron gun in first and second operating modes; wherein the electron beam comprises a high beam-current electron beam in the first operating mode and a low beam-current electron beam in the second operating mode; wherein the dual-lens electron gun comprises: an electron emission system for emitting electrons; a first gun lens for focusing the electrons from the electron emission system to form the electron beam; a beam limiting aperture through which passes the electron beam focused by the first gun lens; and a second gun lens for focusing the electron beam after the electron beam passes through the beam limiting aperture ; and an electron emission system for emitting electrons; a first gun lens for focusing the electrons from the electron emission system to form the electron beam; a beam limiting aperture through which passes the electron beam focused by the first gun lens; and a second gun lens for focusing the electron beam after the electron beam passes through the beam limiting aperture ; and wherein the first gun lens is on and the second gun lens is off in the first operating mode, and the first gun lens is off and the second gun lens is on in the second operating mode,
A method for carrying out a test run on a test bench for a test specimen , at least one measuring sensor (Mi) being arranged on the test specimen , which sensor detects sensor values (SWi) of a measured quantity (MGi) that are supplied to a control unit of the test specimen , and in which control unit the detected sensor values (SWi) of the measured quantity (MGi) are processed in accordance with a plausibility check of the detected sensor values (SWi) of the measured quantity (MGi) in order to control a function of the test specimen , wherein the control unit is switched into a testing mode for carrying out the test run, wherein calculated values (RWi) of the same measured quantity (MGi) are calculated in a simulation unit and the calculated values (RWi) of the measured quantity (MGi) are supplied to the control unit in addition to the detected sensor values (SWi) of the measured quantity (MGi), and wherein, in testing mode, the control unit ignores the detected sensor values (SWi) of the measured quantity (MGi) and omits the plausibility check of the calculated values (RWi) of the measured quantities (MGi).
A system for heating, picking, and placing a component of an assembly , the system comprising: a magnetic core having a component engagement surface configured to magnetically and thermally engage the component of the assembly; an inductive coil wound about the magnetic core; and a controller that provides a DC signal and an AC signal to the inductive coil, the DC signal inducing a magnetic field within the magnetic core, thereby magnetically attracting the component when engaged with the component engagement surface, the AC signal inductively heating the magnetic core, thereby heating the component when engaged with the component engagement surface, characterized in that the magnetic core has a vacuum aperture along a length of the magnetic core between the component engagement surface and another surface, the system further comprising: a vacuum component extractor configured to provide vacuum within the vacuum aperture, thereby providing vacuum coupling of the component when engaged with the component engagement surface. a magnetic core having a component engagement surface configured to magnetically and thermally engage the component of the assembly; an inductive coil wound about the magnetic core; and a controller that provides a DC signal and an AC signal to the inductive coil, the DC signal inducing a magnetic field within the magnetic core, thereby magnetically attracting the component when engaged with the component engagement surface, the AC signal inductively heating the magnetic core, thereby heating the component when engaged with the component engagement surface, characterized in that the magnetic core has a vacuum aperture along a length of the magnetic core between the component engagement surface and another surface, the system further comprising: a vacuum component extractor configured to provide vacuum within the vacuum aperture, thereby providing vacuum coupling of the component when engaged with the component engagement surface.
A titanium alloy comprising: 5.5 to 6.5 wt% aluminum; 3.0 to 4.5 wt% vanadium; 1.0 to 2.0 wt% molybdenum; 0.3 to 1.5 wt% iron; 0.3 to 1.5 wt% chromium; 0.05 to 0.5 wt% zirconium; 0.2 to 0.3 wt% oxygen; maximum of 0.05 wt% nitrogen; maximum of 0.08 wt% carbon; maximum of 0.25 wt% silicon; and balance titanium, wherein a value of an aluminum structural equivalent [Al] eq ranges from 7.5 to 9.5 wt%, and is defined by the following equation: Al eq = Al + O × 10 + Zr / 6 , and wherein a value of a molybdenum structural equivalent [Mo] eq ranges from 6.0 to 8.5 wt%, and is defined by the following equation: Mo eq = Mo + V / 1.5 + Cr × 1.25 + Fe × 2.5 . 5.5 to 6.5 wt% aluminum; 3.0 to 4.5 wt% vanadium; 1.0 to 2.0 wt% molybdenum; 0.3 to 1.5 wt% iron; 0.3 to 1.5 wt% chromium; 0.05 to 0.5 wt% zirconium; 0.2 to 0.3 wt% oxygen; maximum of 0.05 wt% nitrogen; maximum of 0.08 wt% carbon; maximum of 0.25 wt% silicon; and balance titanium, wherein a value of an aluminum structural equivalent [Al] eq ranges from 7.5 to 9.5 wt%, and is defined by the following equation: Al eq = Al + O × 10 + Zr / 6 , and wherein a value of a molybdenum structural equivalent [Mo] eq ranges from 6.0 to 8.5 wt%, and is defined by the following equation: Mo eq = Mo + V / 1.5 + Cr × 1.25 + Fe × 2.5 .
A method comprising: receiving , by a client device, a verification request comprising an interaction identifier; in response to receiving the verification request, comparing , by the client device, samplings of block headers, received from two or more full nodes, for blocks of respective blockchains that are maintained by the two or more full nodes; and determining , by the client device and based on the comparing, that a blockchain maintained by at least one of the two or more full nodes is valid in response to determining a match between each block header in the respective samplings of block headers received from the two or more full nodes or determining that respective block headers in the respective samplings of block headers do not match and verifying, by the client device, each of the respective block headers that are associated with the same blockchain by verifying a proof of work of those block headers; and verifying, by the client device, that the interaction identifier is in a valid block in the blockchain. receiving , by a client device, a verification request comprising an interaction identifier; in response to receiving the verification request, comparing , by the client device, samplings of block headers, received from two or more full nodes, for blocks of respective blockchains that are maintained by the two or more full nodes; and determining , by the client device and based on the comparing, that a blockchain maintained by at least one of the two or more full nodes is valid in response to determining a match between each block header in the respective samplings of block headers received from the two or more full nodes or determining that respective block headers in the respective samplings of block headers do not match and verifying, by the client device, each of the respective block headers that are associated with the same blockchain by verifying a proof of work of those block headers; and verifying, by the client device, that the interaction identifier is in a valid block in the blockchain. determining a match between each block header in the respective samplings of block headers received from the two or more full nodes or determining that respective block headers in the respective samplings of block headers do not match and verifying, by the client device, each of the respective block headers that are associated with the same blockchain by verifying a proof of work of those block headers; and verifying, by the client device, that the interaction identifier is in a valid block in the blockchain.
An anhydrous antiperspirant stick or soft solid composition comprising an antiperspirant active system, thickening agent, and non-aqueous carrier oil, characterised in that the particulate antiperspirant active system is composed of a water soluble calcium salt, an amino acid and an aluminium sesquichlorohydrate of formula Al 2 OH 4.4 Cl 1.6 to Al 2 OH 4.9 Cl 1.1 activated with a water soluble calcium salt, wherein the aluminium sesquichlorohydrate in the antiperspirant active system has a molar ratio of calcium to aluminium of at least 1:20 and a molar ratio of amino acid to aluminium of at least 1:10.