mhurhangee/patent-ind-claim-en huggingface dataset:
Injectable particles comprising at least one pH-altering agent that is configured to be released from the injectable particles in vivo upon embolization of an intratumoral artery of a tumor with the injectable particles, wherein the pH-altering agent is a buffering agent having a pKa value of 7.6 or more selected from an organic amine and a zwitterionic organic compound, and wherein the injectable particles comprise a biostable core and a coating that comprises the pH-altering agent.
A crystalline form of 6,6'-[[3,3',5,5'-tetrakis(1,1-dimethylethyl)-[1,1'-biphenyl]-2,2'-diyl]bis(oxy)]bisdibenzo[d,f] -dioxaphosphepin, which displays its two strongest reflections, stated as 2Θ values, at 7.8 ± 0.2° and 19.7 ± 0.2° in an X-ray powder diffractogram, measured at 25°C with Cu-Kα radiation, whereby the background-corrected peak intensities are judged as strong, medium or weak, wherein strong (S) is greater than 60% of the maximum intensity of the highest peak, medium (M) is 30-59%, and weak (W) is less than 29%; wherein the crystalline form is solvent-free; and wherein the crystalline form has a melting point of 202-208°C, as determined by DSC.
A method for controlling steam pressure within a turbine component during a startup operation, the turbine component being fluidly coupled between an inlet having an inlet valve for controlling steam flow into the turbine component and an exhaust having an exhaust valve for controlling steam flow to a discharge passage , the method comprising: adjusting the exhaust valve to a fully open position and the inlet valve to a fully closed position; calculating a predicted stress on a rotor of the turbine component based on a predicted steam flow with the inlet valve in a minimum load position, a rotor surface temperature, and an inlet steam temperature; determining whether the predicted stress exceeds a threshold; in response to the predicted stress exceeding the threshold, adjusting the inlet valve to a warming position that is less open than the minimum load position, such that a steam flow through the turbine component pressurizes the discharge passage ; in response to steam in the discharge passage reaching a target pressure, partially closing the exhaust valve ( while maintaining the warming position of the inlet (valve ; determining whether a safety parameter of the turbine component violates a boundary, while maintaining the warming position of the inlet valve ; in response to the safety parameter of the turbine component violating the boundary, partially opening the exhaust valve while maintaining the warming position of the inlet valve ; recalculating the predicted stress on the rotor with the inlet (valve in the warming position; and in response to the predicted stress not exceeding the threshold, opening the inlet (valve to at least the minimum load position. adjusting the exhaust valve to a fully open position and the inlet valve to a fully closed position; calculating a predicted stress on a rotor of the turbine component based on a predicted steam flow with the inlet valve in a minimum load position, a rotor surface temperature, and an inlet steam temperature; determining whether the predicted stress exceeds a threshold; in response to the predicted stress exceeding the threshold, adjusting the inlet valve to a warming position that is less open than the minimum load position, such that a steam flow through the turbine component pressurizes the discharge passage ; in response to steam in the discharge passage reaching a target pressure, partially closing the exhaust valve ( while maintaining the warming position of the inlet (valve ; determining whether a safety parameter of the turbine component violates a boundary, while maintaining the warming position of the inlet valve ; in response to the safety parameter of the turbine component violating the boundary, partially opening the exhaust valve while maintaining the warming position of the inlet valve ; recalculating the predicted stress on the rotor with the inlet (valve in the warming position; and in response to the predicted stress not exceeding the threshold, opening the inlet (valve to at least the minimum load position.
A container assembly comprising: a collection container having a closed bottom, an open top, and a sidewall extending therebetween having an inner surface defining at least one capillary channel ; and a closure adapted to interface with the collection container, the closure being seatable at least partially within the open top of the collection container to seal the collection container and define a fluid sample chamber , wherein the closure has a distal end defining a distal recess having at least one capillary channel that extends outward and downward from an apex point in the distal recess to a peripheral edge formed by the distal recess at the distal end, the distal recess being shaped to direct fluid from a patient under capillary action to the at least one capillary channel in the collection container. a collection container having a closed bottom, an open top, and a sidewall extending therebetween having an inner surface defining at least one capillary channel ; and a closure adapted to interface with the collection container, the closure being seatable at least partially within the open top of the collection container to seal the collection container and define a fluid sample chamber , wherein the closure has a distal end defining a distal recess having at least one capillary channel that extends outward and downward from an apex point in the distal recess to a peripheral edge formed by the distal recess at the distal end, the distal recess being shaped to direct fluid from a patient under capillary action to the at least one capillary channel in the collection container.
A benzylated Mannich base composition including at least one benzylated Mannich base compound having at least two nitrogen atoms, at least two active amine hydrogen atoms and at least one benzyl group per molecule comprising a reaction product of an amine exchange reaction of (a) a substituted phenolic compound having at least one substituent of formula (I): wherein R 1 is each independently a linear or branched alkyl group having 1 to 4 carbon atoms, and R 2 is hydrogen, methyl, ethyl or phenyl, with (b) a benzylated polyalkylene polyamine having at least two nitrogen atoms, at least two active amine hydrogen atoms and at least one benzyl group selected from the group consisting of benzylated ethylene diamine, benzylated diethylenetriamine, and benzylated triethylenetetramine, benzylated tetraethylenepentamine, benzylated propylene diamine, benzylated dipropylenetriamine, benzylated tripropylenetetramine, benzylated N-3-aminopropyl ethylenediamine, benzylated N,N'-bis(3-aminopropyl) ethylenediamine, benzylated N,N,N'-tris(3-aminopropyl) ethylenediamine, and combinations thereof; and, optionally, (c) a multifunctional amine having at least two nitrogen atoms, and at least two active amine hydrogen atoms per molecule, wherein the multifunctional amines are not the benzylated polyalkylene polyamines.
Method of operating a laboratory automation system , wherein the laboratory automation system comprises: - a number of laboratory stations , - a number of sample container carriers , wherein the sample container carriers are adapted to carry one or more sample containers , wherein the sample containers comprise samples to be analyzed by means of the laboratory stations , - a transport plane , wherein the transport plane is adapted to support the sample container carriers , and - drive means , wherein the drive means are adapted to move the sample container carriers on the transport plane , wherein the method comprises the steps: - during an initialization of the laboratory automation system : - logically reserving at least one buffer area on the transport plane , characterized in that the method comprises the steps: - after the initialization of the laboratory automation system : - buffering in the at least one buffer area sample container carriers carrying sample containers , which sample containers comprise samples waiting for a result of an analysis, wherein depending on the result of the analysis, the samples have to be further processed, and - collecting operating data of the laboratory automation system , and - during a next initialization of the laboratory automation system , setting properties of the least one buffer area depending on the collected operating data. - a number of laboratory stations , - a number of sample container carriers , wherein the sample container carriers are adapted to carry one or more sample containers , wherein the sample containers comprise samples to be analyzed by means of the laboratory stations , - a transport plane , wherein the transport plane is adapted to support the sample container carriers , and - drive means , wherein the drive means are adapted to move the sample container carriers on the transport plane , - during an initialization of the laboratory automation system : - logically reserving at least one buffer area on the transport plane , characterized in that the method comprises the steps: - logically reserving at least one buffer area on the transport plane , characterized in that the method comprises the steps: - after the initialization of the laboratory automation system : - buffering in the at least one buffer area sample container carriers carrying sample containers , which sample containers comprise samples waiting for a result of an analysis, wherein depending on the result of the analysis, the samples have to be further processed, and - collecting operating data of the laboratory automation system , and - buffering in the at least one buffer area sample container carriers carrying sample containers , which sample containers comprise samples waiting for a result of an analysis, wherein depending on the result of the analysis, the samples have to be further processed, and - collecting operating data of the laboratory automation system , and - during a next initialization of the laboratory automation system , setting properties of the least one buffer area depending on the collected operating data.
A fluorinated polymer comprising units represented by the following formula , wherein in at least some of the units represented by the formula , Z 1 is NR 1 NR 2 H or NR 3 OR 4 : in the formula , X 1 and X 2 are each independently a hydrogen atom or a fluorine atom, Q 1 is a single bond or an etheric oxygen atom, R f1 is a fluoroalkylene group, or a fluoroalkylene group with at least 2 carbon atoms, having an etheric oxygen atom between carbon-carbon atoms, Z 1 is NR 1 NR 2 H, NR 3 OR 4 or OR 5 , R 1 , R 2 , R 3 and R 4 are each independently a hydrogen atom or an alkyl group, and R 5 is an alkyl group.
A spline coupling comprising: a male spline member having a plurality of male spline teeth ; a female spline member having a plurality of female spline teeth complementary to and engaged with the plurality of male spline teeth ; and a drainage hole in a top land surface of the one or more of the plurality of female spline teeth and passing through the one or more of the plurality of female spline teeth , characterized in that : one or more of the plurality of female spline teeth has a tooth height (H b ) that is lesser than a tooth height (H a ) of another one or more of the plurality of female spline teeth , the tooth height (H b ) of the one or more of the plurality of female spline teeth defined by a top land surface of the one or more of the plurality of female spline teeth , the tooth height (H a ) of the other one or more of the plurality of female spline teeth defined by a top land surface of the other one or more of the plurality of female spline teeth a male spline member having a plurality of male spline teeth ; a female spline member having a plurality of female spline teeth complementary to and engaged with the plurality of male spline teeth ; and a drainage hole in a top land surface of the one or more of the plurality of female spline teeth and passing through the one or more of the plurality of female spline teeth , characterized in that : one or more of the plurality of female spline teeth has a tooth height (H b ) that is lesser than a tooth height (H a ) of another one or more of the plurality of female spline teeth , the tooth height (H b ) of the one or more of the plurality of female spline teeth defined by a top land surface of the one or more of the plurality of female spline teeth , the tooth height (H a ) of the other one or more of the plurality of female spline teeth defined by a top land surface of the other one or more of the plurality of female spline teeth the tooth height (H b ) of the one or more of the plurality of female spline teeth defined by a top land surface of the one or more of the plurality of female spline teeth , the tooth height (H a ) of the other one or more of the plurality of female spline teeth defined by a top land surface of the other one or more of the plurality of female spline teeth
Wrench for capturing and fixing a prosthetic component in the form of a screw in a dental implant, the wrench comprising at its lower end : a tip with a circular end , a plurality of protrusions , and a plurality of recesses ; wherein the plurality of protrusions and the plurality of recesses are alternately arranged, such that side walls are formed substantially perpendicular to the longitudinal axis of the wrench ; and wherein each of the protrusions is subsequently divided, from the tip of the lower end , into a first region (12.1), a second region (12.2), and third region (12.3), characterized in that : - the first region (12.1) is provided with a corner break, so as to facilitate fitting the wrench into the component ; - the second region (12.2) is parallel to the wrench longitudinal axis; - the third region (12.3) is conical in shape; and - the recesses extend into the region next to the center of the circular end . a tip with a circular end , a plurality of protrusions , and a plurality of recesses ; wherein the plurality of protrusions and the plurality of recesses are alternately arranged, such that side walls are formed substantially perpendicular to the longitudinal axis of the wrench ; and wherein each of the protrusions is subsequently divided, from the tip of the lower end , into a first region (12.1), a second region (12.2), and third region (12.3), characterized in that : - the first region (12.1) is provided with a corner break, so as to facilitate fitting the wrench into the component ; - the second region (12.2) is parallel to the wrench longitudinal axis; - the third region (12.3) is conical in shape; and - the recesses extend into the region next to the center of the circular end . - the first region (12.1) is provided with a corner break, so as to facilitate fitting the wrench into the component ; - the second region (12.2) is parallel to the wrench longitudinal axis; - the third region (12.3) is conical in shape; and - the recesses extend into the region next to the center of the circular end .
Motor vehicle lighting device comprising: a housing , a light passage opening of which is closed with a portion which is transparent to light; at least one light source which is designed to generate an emission light distribution which is emitted by the motor vehicle lighting device by means of the transparent portion ; a first infrared light unit which is oriented such that infrared light emitted by the first infrared light unit impinges on the transparent portion , and which is designed to generate a first test light distribution ; a second infrared light unit which is oriented such that a second test light distribution , which comprises infrared light incident from the direction of the transparent portion , impinges on the second infrared light unit , which light unit is designed to identify at least one sensor signal on the basis of the impinging second test light distribution ; and a control unit which is designed to detect a coating present on the transparent portion on the basis of the sensor signal , characterized in that the first infrared light unit is designed to generate a heating light distribution , and in that the control unit is designed to operate the first infrared light unit for generating the heating light distribution on the basis of the at least one sensor signal . a housing , a light passage opening of which is closed with a portion which is transparent to light; at least one light source which is designed to generate an emission light distribution which is emitted by the motor vehicle lighting device by means of the transparent portion ; a first infrared light unit which is oriented such that infrared light emitted by the first infrared light unit impinges on the transparent portion , and which is designed to generate a first test light distribution ; a second infrared light unit which is oriented such that a second test light distribution , which comprises infrared light incident from the direction of the transparent portion , impinges on the second infrared light unit , which light unit is designed to identify at least one sensor signal on the basis of the impinging second test light distribution ; and a control unit which is designed to detect a coating present on the transparent portion on the basis of the sensor signal , characterized in that the first infrared light unit is designed to generate a heating light distribution , and in that the control unit is designed to operate the first infrared light unit for generating the heating light distribution on the basis of the at least one sensor signal .
A variable magnetic flux motor comprising a stationary magnet and a variable magnet, wherein at least one of the stationary magnet and the variable magnet is a permanent magnet comprising a sintered compact, the sintered compact comprising: a composition represented by the following composition formula: R p Fe q M r Cu s Co 100-p-q-r-s wherein R is at least one element selected from the group consisting of rare earth elements, M is at least one element selected from the group consisting of Zr, Ti, and Hf, p is 10.5 atomic% or more and 12.5 atomic% or less, q is 24 atomic% or more and 40 atomic% or less, r is 0.88 atomic% or more and 4.5 atomic% or less, and s is 3.5 atomic% or more and 10.7 atomic% or less; and a structure having crystal grains constituted of a main phase including a Th 2 Zn 17 crystal phase, and a crystal grain boundary existing between the crystal grains, characterized in that an average grain diameter of the crystal grains is 25 μm or more, and a volume fraction of the crystal grain boundary is 5% or more and 14% or less, and wherein, when the Th 2 Zn 17 crystal phase is indexed as a TbCu 7 crystal phase, an average distance between crystal grains with a displacement angle of a direction of the TbCu 7 crystal phase being 45 degrees or more is 120 μm or more. a composition represented by the following composition formula: R p Fe q M r Cu s Co 100-p-q-r-s wherein R is at least one element selected from the group consisting of rare earth elements, M is at least one element selected from the group consisting of Zr, Ti, and Hf, p is 10.5 atomic% or more and 12.5 atomic% or less, q is 24 atomic% or more and 40 atomic% or less, r is 0.88 atomic% or more and 4.5 atomic% or less, and s is 3.5 atomic% or more and 10.7 atomic% or less; and wherein R is at least one element selected from the group consisting of rare earth elements, M is at least one element selected from the group consisting of Zr, Ti, and Hf, p is 10.5 atomic% or more and 12.5 atomic% or less, q is 24 atomic% or more and 40 atomic% or less, r is 0.88 atomic% or more and 4.5 atomic% or less, and s is 3.5 atomic% or more and 10.7 atomic% or less; and a structure having crystal grains constituted of a main phase including a Th 2 Zn 17 crystal phase, and a crystal grain boundary existing between the crystal grains, characterized in that an average grain diameter of the crystal grains is 25 μm or more, and a volume fraction of the crystal grain boundary is 5% or more and 14% or less, and wherein, when the Th 2 Zn 17 crystal phase is indexed as a TbCu 7 crystal phase, an average distance between crystal grains with a displacement angle of a direction of the TbCu 7 crystal phase being 45 degrees or more is 120 μm or more.
A transaction device for exchanging information and having circuitry for detecting an attempt to tamper with a contact interface of the transaction device, comprising: a contact interface comprising a plurality of pins; a processing unit coupled to the contact interface and configured to execute instructions; a plurality of contact lines coupled between the plurality of pins of the contact interface and the processing unit; a memory having the instructions stored thereon, the memory being coupled to provide the instructions to the processing unit, characterised in that the instructions are configured, when executed, to cause the processing unit to: apply a non-standard signal to one or more of the plurality of contact lines; measure a response value for the non-standard signal; and identify the attempt to tamper with the contact interface based on the response value. a contact interface comprising a plurality of pins; a processing unit coupled to the contact interface and configured to execute instructions; a plurality of contact lines coupled between the plurality of pins of the contact interface and the processing unit; a memory having the instructions stored thereon, the memory being coupled to provide the instructions to the processing unit, characterised in that the instructions are configured, when executed, to cause the processing unit to: apply a non-standard signal to one or more of the plurality of contact lines; measure a response value for the non-standard signal; and identify the attempt to tamper with the contact interface based on the response value. apply a non-standard signal to one or more of the plurality of contact lines; measure a response value for the non-standard signal; and identify the attempt to tamper with the contact interface based on the response value.