mhurhangee/patent-ind-claim-en huggingface dataset:
An offshore structure comprising: an original structure comprising a main platform supported via a foundation on a seabed ; and an extension structure comprising a platform extension positioned laterally of the main platform and a platform extension support , characterized in that said extension support extends downwardly from the platform extension, into contact with the foundation, so as to support the extension structure directly on the foundation. an original structure comprising a main platform supported via a foundation on a seabed ; and an extension structure comprising a platform extension positioned laterally of the main platform and a platform extension support , characterized in that said extension support extends downwardly from the platform extension, into contact with the foundation, so as to support the extension structure directly on the foundation.
Disposable for extracorporeal blood treatment, preferably apheresis set, which comprises a blood admission line , a separator , a blood return line , a plasma line and two interfaces for the addition of citrate, wherein a first interface is arranged in the blood admission line and a second interface is arranged in the plasma line , wherein in the blood admission line the disposable has a blood pump downstream of the first interface and upstream of the separator , in the blood admission line the disposable has an access valve or an access clamp upstream of the first interface , and in the blood admission line the disposable has an access pressure sensor between the blood pump and the access valve or the access clamp .
A method for use by a medical device having a first port , a second port and a control unit , the method comprising: receiving, via the first port , pulse-oximetry measurements (Sp0 2 ) of a patient's peripheral arterial blood oxygen saturation during a first time period; receiving, via the second port , breathing samples of the patient; determining, by the control unit using breathing samples of the patient, oxygen partial pressure measurements (P A 0 2 ) and carbon dioxide partial pressure measurements (P A C0 2 ) from exhaled air of the patient during a steady-state breathing of the patient during the first time period; determining, by the control unit , a respiratory exchange ratio (RQ) of the patient; determining, by the control unit , an arterial oxygen partial pressure (P a 0 2 ) and an oxygen deficit (P A 0 2 - P a 0 2 ) using each of the pulse oximetry measurements (Sp0 2 ), the oxygen partial pressure measurements (P A 0 2 ) and the carbon dioxide partial pressure measurements (P A C0 2 ); and generating, by the control unit , one or more signals based on the determining of the arterial oxygen partial pressure (P a 0 2 ), the oxygen deficit (P A 0 2 - P a 0 2 ) and the respiratory exchange ratio (RQ) of the patient. receiving, via the first port , pulse-oximetry measurements (Sp0 2 ) of a patient's peripheral arterial blood oxygen saturation during a first time period; receiving, via the second port , breathing samples of the patient; determining, by the control unit using breathing samples of the patient, oxygen partial pressure measurements (P A 0 2 ) and carbon dioxide partial pressure measurements (P A C0 2 ) from exhaled air of the patient during a steady-state breathing of the patient during the first time period; determining, by the control unit , a respiratory exchange ratio (RQ) of the patient; determining, by the control unit , an arterial oxygen partial pressure (P a 0 2 ) and an oxygen deficit (P A 0 2 - P a 0 2 ) using each of the pulse oximetry measurements (Sp0 2 ), the oxygen partial pressure measurements (P A 0 2 ) and the carbon dioxide partial pressure measurements (P A C0 2 ); and generating, by the control unit , one or more signals based on the determining of the arterial oxygen partial pressure (P a 0 2 ), the oxygen deficit (P A 0 2 - P a 0 2 ) and the respiratory exchange ratio (RQ) of the patient.
A nanofiber laminate sheet comprising a layer of a nanofiber of a water insoluble polymer, and a layer of a nanofiber of a water soluble polymer containing a cosmetic component or a medicinal component wherein the term "water insoluble polymer" refers to a polymer having solubility such that, when a sample polymer weighing 1 g is immersed in 10 g of ion-exchanged water for 24 hours at 23°C and atmospheric pressure, 0.8 g or more of the immersed polymer does not dissolve in the ion-exchanged water and wherein the term "water soluble polymer" denotes a polymer having solubility such that, when a sample polymer weighing 1 g is immersed in 10 g of ion-exchanged water for 24 hours at 23°C and atmospheric pressure, at least 0.5 g of the immersed polymer dissolves in the ion-exchanged water.
Process for the preparation of a zeolite having a unit cell size in the range of from 24.42 to 24.52 Å; a bulk silica to alumina molar ratio (SAR) in the range of from 10 to 15; and a surface area of from 910 to 1020 m 2 /g which process comprises a) providing a starting zeolite of the faujasite structure having a silica to alumina ratio of from 4.5 to 6.5 and an alkali level as determined by XRF of less than 1.5%wt; b) steam calcination by treating said starting zeolite at a temperature in the range of from 550 to 750 °C and at a partial pressure of steam in the range of from 12 to 35 vol%, basis total gas present, during of from 0.5 to 3 hours to produce an intermediate zeolite having a unit cell size of from 24.40 to 24.50 Å; c) contacting the intermediate zeolite with an acidified solution comprising of from 4 to 9 mmole of acid, having a pKa below 0, per gram of zeolite and an ammonium salt at a temperature of from 20 to 100 °C and during of from 2 minutes to 2 hours to produce a zeolite having a unit cell size in the range of from 24.42 Å to 24.52 Å; a SAR in the range of from 10 to 15; and a surface area of from 910 to 1020 m 2 /g; and d) recovering said zeolite. a) providing a starting zeolite of the faujasite structure having a silica to alumina ratio of from 4.5 to 6.5 and an alkali level as determined by XRF of less than 1.5%wt; b) steam calcination by treating said starting zeolite at a temperature in the range of from 550 to 750 °C and at a partial pressure of steam in the range of from 12 to 35 vol%, basis total gas present, during of from 0.5 to 3 hours to produce an intermediate zeolite having a unit cell size of from 24.40 to 24.50 Å; c) contacting the intermediate zeolite with an acidified solution comprising of from 4 to 9 mmole of acid, having a pKa below 0, per gram of zeolite and an ammonium salt at a temperature of from 20 to 100 °C and during of from 2 minutes to 2 hours to produce a zeolite having a unit cell size in the range of from 24.42 Å to 24.52 Å; a SAR in the range of from 10 to 15; and a surface area of from 910 to 1020 m 2 /g; and d) recovering said zeolite.
A method of producing an aldehyde compound or a ketone compound by oxidation of a primary or secondary alcohol compound having, in the molecule, a group selected from an amino group, an azido group, a hydroxy group, and a hydroxy group protected with a protective group, the method comprising the steps of: a first step including colliding and mixing an acid anhydride having 4 to 10 carbon atoms and a liquid containing the alcohol compound and a dialkyl sulfoxide having 2 to 8 carbon atoms in a flow-through type reactor to cause a reaction; and a second step including colliding and mixing, in a flow-through type reactor, a trialkylamine having 3 to 10 carbon atoms and the mixture liquid obtained in the first step to cause a reaction; wherein the reactions in the first step and the second step are sequentially performed, and a mixture linear velocity in the first step is in a range of from 1 m/s to 6 m/s. a first step including colliding and mixing an acid anhydride having 4 to 10 carbon atoms and a liquid containing the alcohol compound and a dialkyl sulfoxide having 2 to 8 carbon atoms in a flow-through type reactor to cause a reaction; and a second step including colliding and mixing, in a flow-through type reactor, a trialkylamine having 3 to 10 carbon atoms and the mixture liquid obtained in the first step to cause a reaction; wherein the reactions in the first step and the second step are sequentially performed, and a mixture linear velocity in the first step is in a range of from 1 m/s to 6 m/s.
Method for monitoring an oil-injected screw compressor designed for compressing intake air, in which oil is returned from an oil separator container into a compression chamber of a compressor block , for condensate formation in the oil circuit due to an excessively low compression end temperature (VET), characterized in that a water inlet mass flow ṁ in (t) and a water outlet mass flow ṁ out (t) are determined for a point in time t, wherein the water inlet mass flow ṁ in (t) is calculated from the inlet air mass flow ṁ air (t) - with the assumption of a relative humidity of 100% or - with the assumption of a relative humidity with a fixed value H, with 70%≤H<100%, or - with the assumption of a relative humidity dependent on the intake air temperature T int , or wherein the water inlet mass flow ṁ in (t) is determined from the inlet air mass flow ṁ air (t) on the basis of a specified value of a relative humidity <100%, wherein the value of the relative humidity is detected via a hardware sensor, and occurring condensate flow Δṁ w (t)= ṁ in (t)- ṁ out (t) is determined on the basis of a difference formation, and wherein the occurring condensate flow Δṁ w is the change in the condensate mass contained in the oil circuit per time for a point in time t. characterized in that a water inlet mass flow ṁ in (t) and a water outlet mass flow ṁ out (t) are determined for a point in time t, wherein the water inlet mass flow ṁ in (t) is calculated from the inlet air mass flow ṁ air (t) - with the assumption of a relative humidity of 100% or - with the assumption of a relative humidity with a fixed value H, with 70%≤H<100%, or - with the assumption of a relative humidity dependent on the intake air temperature T int , or - with the assumption of a relative humidity of 100% or - with the assumption of a relative humidity with a fixed value H, with 70%≤H<100%, or - with the assumption of a relative humidity dependent on the intake air temperature T int , or wherein the water inlet mass flow ṁ in (t) is determined from the inlet air mass flow ṁ air (t) on the basis of a specified value of a relative humidity <100%, wherein the value of the relative humidity is detected via a hardware sensor, and occurring condensate flow Δṁ w (t)= ṁ in (t)- ṁ out (t) is determined on the basis of a difference formation, and wherein the occurring condensate flow Δṁ w is the change in the condensate mass contained in the oil circuit per time for a point in time t.
A transparent braces design method performed by a transparent braces design apparatus , the method comprising: (S210) obtaining clinical data of a patient for a digital orthodontic treatment; (S220) analyzing the clinical data to diagnose a dental condition: (S230) establishing a treatment plan for tooth movement according to a result of diagnosing the dental condition; (S240) predicting a treatment result by performing a simulation according to the treatment plan, the treatment result including an effect of adjacent teeth on a tooth to be moved within transparent braces to be manufactured; and (S250) modifying the treatment plan to reflect the predicted effect of adjacent teeth, characterized in that the (S240) predicting the treatment result comprises predicting a collision between teeth during orthodontic treatment on the basis of a color map for representing the difference value between a tooth model to be moved according to the treatment plan and a transparent braces model. (S210) obtaining clinical data of a patient for a digital orthodontic treatment; (S220) analyzing the clinical data to diagnose a dental condition: (S230) establishing a treatment plan for tooth movement according to a result of diagnosing the dental condition; (S240) predicting a treatment result by performing a simulation according to the treatment plan, the treatment result including an effect of adjacent teeth on a tooth to be moved within transparent braces to be manufactured; and (S250) modifying the treatment plan to reflect the predicted effect of adjacent teeth, characterized in that the (S240) predicting the treatment result comprises predicting a collision between teeth during orthodontic treatment on the basis of a color map for representing the difference value between a tooth model to be moved according to the treatment plan and a transparent braces model. (S230) establishing a treatment plan for tooth movement according to a result of diagnosing the dental condition; (S240) predicting a treatment result by performing a simulation according to the treatment plan, the treatment result including an effect of adjacent teeth on a tooth to be moved within transparent braces to be manufactured; and (S250) modifying the treatment plan to reflect the predicted effect of adjacent teeth, characterized in that the (S240) predicting the treatment result comprises predicting a collision between teeth during orthodontic treatment on the basis of a color map for representing the difference value between a tooth model to be moved according to the treatment plan and a transparent braces model.
A process for the production of an at least two-layer foam sheet via adhesive bonding of at least one thinner thermoplastic foam sheet (TS) and at least one thinner thermoset foam sheet (DS), where the thinner thermoset foam sheet (DS) has a metal outer layer on each of two opposite sides, where the thinner thermoplastic foam sheet (TS) and the thinner thermoset foam sheet (DS) are adhesive-bonded to one another in a manner such that in the at least two-layer foam sheet there is a metal outer layer between the thinner thermoplastic foam sheet (TS) and the thinner thermoset foam sheet (DS), and where the adhesive with which the thinner thermoplastic foam sheet (TS) and the thinner thermoset foam sheet (DS) are adhesive-bonded to one another comprises at least one inorganic component, where the adhesive comprises at least 30% by weight, based on the total weight of the adhesive, of calcium oxide, silicon oxide and/or aluminum oxide.
A fluid ejection die comprising: a plurality of actuation devices configured to eject fluid drops; at least one strain gauge sensor configured to sense strain; and characterised by : a comparator configured to provide a fault signal in response to the sensed strain exceeding an impact threshold indicating that the fluid ejection die has impacted an object. a plurality of actuation devices configured to eject fluid drops; at least one strain gauge sensor configured to sense strain; and characterised by : a comparator configured to provide a fault signal in response to the sensed strain exceeding an impact threshold indicating that the fluid ejection die has impacted an object.
A light emitting device comprising: an LED emitting ultraviolet or blue light; and one or more phosphors excited by the ultraviolet or blue light and in response emitting longer wavelength light to provide a combined phosphor emission spectrum having an emission peak at wavelength λ pk with a full width at half maximum of FWHM, the wavelength λ pk satisfying 525 nm ≥ λ pk ≥ 0.039 * FWHM + 492.7 nm with λ pk and FWHM expressed in nm, and the combined phosphor emission spectrum having an x,y color point in the 1931 CIE color space that does not satisfy x < 0.2 and 0.32 < y < 0.4; optical output from the light emitting device, formed from at least the light emitted by the one or more phosphors and including blue light emitted by the LED, having an x,y color point with x < 0.2 and 0.32 < y < 0.4 in the 1931 CIE color space; the blue light from the LED shifting the x,y color point of the optical output of the light emitting device from that of the combined phosphor emission spectrum to the color point for which x < 0.2 and 0.32 < y < 0.4; and the one or more phosphors being selected from the group consisting of (a) M 4 B 14 O 25 :Eu 2+ + (b) A 3 B 5 O 12 :Ce 3+ , wherein M comprises one or more of Sr and Ca, wherein A comprises one or more of Y, Gd, and Lu, and wherein B comprises one or more of Al, Ga, In and Sc. an LED emitting ultraviolet or blue light; and one or more phosphors excited by the ultraviolet or blue light and in response emitting longer wavelength light to provide a combined phosphor emission spectrum having an emission peak at wavelength λ pk with a full width at half maximum of FWHM, the wavelength λ pk satisfying 525 nm ≥ λ pk ≥ 0.039 * FWHM + 492.7 nm with λ pk and FWHM expressed in nm, and the combined phosphor emission spectrum having an x,y color point in the 1931 CIE color space that does not satisfy x < 0.2 and 0.32 < y < 0.4; optical output from the light emitting device, formed from at least the light emitted by the one or more phosphors and including blue light emitted by the LED, having an x,y color point with x < 0.2 and 0.32 < y < 0.4 in the 1931 CIE color space; the blue light from the LED shifting the x,y color point of the optical output of the light emitting device from that of the combined phosphor emission spectrum to the color point for which x < 0.2 and 0.32 < y < 0.4; and the one or more phosphors being selected from the group consisting of (a) M 4 B 14 O 25 :Eu 2+ + (b) A 3 B 5 O 12 :Ce 3+ , wherein M comprises one or more of Sr and Ca, wherein A comprises one or more of Y, Gd, and Lu, and wherein B comprises one or more of Al, Ga, In and Sc.
An additive manufacturing system, comprising: a recoater having an drive axis and an oscillation axis; a build chamber disposed along the drive axis; a drive module operably connected to the recoater to drive the recoater along the drive axis; a vibration module operably connected to the recoater to vibrate the recoater along the oscillation axis; and a control module communicative with the vibration module and configured to select one or more of a vibration direction, frequency, and/or magnitude according to constitution of a powder disposed within the build chamber; characterized byfurther comprising (a) a charging module disposed along the drive axis, (b) one or more of a pitching or yawing module operably connected to the recoater. a recoater having an drive axis and an oscillation axis; a build chamber disposed along the drive axis; a drive module operably connected to the recoater to drive the recoater along the drive axis; a vibration module operably connected to the recoater to vibrate the recoater along the oscillation axis; and a control module communicative with the vibration module and configured to select one or more of a vibration direction, frequency, and/or magnitude according to constitution of a powder disposed within the build chamber; characterized byfurther comprising (a) a charging module disposed along the drive axis, (b) one or more of a pitching or yawing module operably connected to the recoater.
An intimate blend of staple fibers, comprising: (a) 15 to 70 weight percent modacrylic fiber; (b) 5 to 27 weight percent para-aramid fiber; and (c) 3 to 80 weight percent meta-aramid fiber; wherein, i) 25 to 100 parts of the meta-aramid fiber present in the blend contains 0.5 to 20 weight percent discrete carbon particles based on the amount of carbon particles in an individual fiber, the carbon particles being homogeneously dispersed in that fiber; and ii) 0 to 75 parts of the meta-aramid fiber present in the blend are free of discrete carbon particles; the intimate blend having a total content of 0.1 to 3 weight percent discrete carbon particles. (a) 15 to 70 weight percent modacrylic fiber; (b) 5 to 27 weight percent para-aramid fiber; and (c) 3 to 80 weight percent meta-aramid fiber; wherein, i) 25 to 100 parts of the meta-aramid fiber present in the blend contains 0.5 to 20 weight percent discrete carbon particles based on the amount of carbon particles in an individual fiber, the carbon particles being homogeneously dispersed in that fiber; and ii) 0 to 75 parts of the meta-aramid fiber present in the blend are free of discrete carbon particles; the intimate blend having a total content of 0.1 to 3 weight percent discrete carbon particles. i) 25 to 100 parts of the meta-aramid fiber present in the blend contains 0.5 to 20 weight percent discrete carbon particles based on the amount of carbon particles in an individual fiber, the carbon particles being homogeneously dispersed in that fiber; and ii) 0 to 75 parts of the meta-aramid fiber present in the blend are free of discrete carbon particles;
An imaging device for projecting individually controllable laser beams onto an imaging surface that is movable relative thereto in a reference X-direction, the device including a plurality of semiconductor chips each of which comprises a plurality of individually controllable laser beam emitting elements arranged in a two dimensional array of M rows and N columns, the elements in each row having a uniform spacing A r and the elements in each column having a uniform spacing a c , wherein the chips are mounted on a support in such a manner that each pair of chips that are adjacent one another in a reference Y-direction, transverse to the X-direction, are offset from one another in the X-direction, and, when activated continuously, the emitted laser beams of the two chips of said pair trace on the imaging surface a set of parallel lines that extend in the X-direction and are substantially uniformly spaced in the Y-direction, characterized in that the chips are arranged in at least one pair of rows on the support, and the alignment of the chips within the or each pair of rows is such that corresponding elements in any group of three adjacent chips in the X and Y-directions lie at the apices of congruent equilateral triangles, and in that the imaging device further comprises a plurality of lens systems each serving to focus the laser beams of all the laser elements of a respective one of the chips onto the imaging surface without altering the separation between the laser beams, each lens system comprising at least one gradient index (GRIN) rod having a diameter equal to 2•N•A r , being the distance between corresponding elements in adjacent chips in the same row, corresponding grin rods of different lens systems associated with different chips being arranged in an array of at least one pair of rows, in such a manner that cylindrical surfaces of the GRIN rods in each row of any pair contact one another and the cylindrical surface of each lens in each row additionally contacts the cylindrical surfaces of the two adjacent GRIN rods in the other row.
A light source comprising: a plurality of discrete wavelength emitting LED chips, wherein the plurality of discrete wavelength emitting LED chips are configured to be switched on together in a Circadian Day (CDay) mode and emit a visible light spectrum across the 400-700nm range, and wherein one or more of the discrete wavelength LED chips is configured to be selectively switched off in a CNight mode, such that the remaining switched on discrete wavelength LED chips include at least a violet LED and wherein the in the Circadian Night (CNight) mode, the light emitted by the remaining switched on discrete wavelength LED chips has less than about six percent (6%) of the total irradiance from the light source in the 400 nm - 700 nm range in a wavelength band from 430 nm to 490 nm and has greater than about four percent (4%) of the total irradiance from the light source in the 400-700nm range in a wavelength band from 400 nm to 430 nm, and whereby day-night pattern lighting is achieved by switching between the CDay mode and the CNight mode.