mhurhangee/patent-ind-claim-en huggingface dataset:
An isocyanate-reactive composition comprising: a polyol composition having an average hydroxyl functionality from 3.7 to 5.7 based upon total polyols of the polyol composition, an average hydroxyl number from 370 to 550 mg KOH/g based upon total polyols of the polyol composition, and a number average molecular weight from 400 to 750 g/mol based upon total polyols of the polyol composition; and a high-functionality crosslinker having an average functionality of 3.0 or more, wherein functional groups of the high-functionality crosslinker are selected from acrylate groups, allyl groups, OH groups, NH 2 groups, COOH groups, and combinations thereof, wherein from 10 to 99 percent of the functional groups of the high-functionality crosslinker are acrylate groups, allyl groups, or combinations thereof. a polyol composition having an average hydroxyl functionality from 3.7 to 5.7 based upon total polyols of the polyol composition, an average hydroxyl number from 370 to 550 mg KOH/g based upon total polyols of the polyol composition, and a number average molecular weight from 400 to 750 g/mol based upon total polyols of the polyol composition; and a high-functionality crosslinker having an average functionality of 3.0 or more, wherein functional groups of the high-functionality crosslinker are selected from acrylate groups, allyl groups, OH groups, NH 2 groups, COOH groups, and combinations thereof, wherein from 10 to 99 percent of the functional groups of the high-functionality crosslinker are acrylate groups, allyl groups, or combinations thereof.
A bending machine with a work area image capturing device , wherein the bending machine has a machine frame, a longitudinally extended machine table fixed in place, and a longitudinally extended press beam , which press beam is guided in the machine frame and held by a drive means , so as to be movable relative to the latter, and wherein the machine frame furthermore has two side parts , which are spaced apart from one another by a machine width in the direction of the longitudinal extension of the machine table , and wherein the longitudinal extension and the direction of movement of the press beam define a working plane , and the working plane establishes a front working and manipulation space and a rear machine space , which is distinguished from the former and, in particular, closed off, and wherein the image capturing device has two image capturing means , and that a capturing region of the image capturing device is oriented in the direction of the machine table , and that each image capturing means captures a partial section in the direction of the machine table , and wherein the image capturing device is connected with a display means , characterized in that the image capturing device is disposed in the working and manipulation space above the machine table , in a center section of the longitudinal extension of the press beam, in a press beam casing , and that the display means is configured for representation of the captured image of the capture region , and the optical centers of the two image capturing means coincide in comparison with the longitudinal extension of the machine table , in particular are disposed at a distance from one another of less than 10 cm.
A spray composition comprising: 0.01 wt.% to 3.0 wt.% perfume-cyclodextrin complex, by weight of the overall composition, the perfume-cyclodextrin complex comprising: perfume raw materials, wherein 50% or more, by weight of the perfume raw materials have: a cyclodextrin complex stability constant (log k) of less than 3.0, a ClogP of 2.5 or less; and a weight average molecular weight of about 200 Daltons or less; and cyclodextrin; about 30 wt.% to about 80 wt.% solvent, by weight of the overall composition; 0.01 wt.% to 3.0 wt. % free perfume composition, by weight of the overall composition; and less than 10 wt. % water, by weight of the overall composition. perfume raw materials, wherein 50% or more, by weight of the perfume raw materials have: a cyclodextrin complex stability constant (log k) of less than 3.0, a ClogP of 2.5 or less; and a weight average molecular weight of about 200 Daltons or less; and cyclodextrin; about 30 wt.% to about 80 wt.% solvent, by weight of the overall composition; 0.01 wt.% to 3.0 wt. % free perfume composition, by weight of the overall composition; and less than 10 wt. % water, by weight of the overall composition.
An in vitro method of differentiating hematopoietic precursor cells (HPCs) derived from pluripotent stem cells (PSCs) into erythroid, lymphoid or myeloid cells comprising obtaining HPCs that exhibit disrupted Methyl-CpG Binding Protein 2 (MeCP2) and culturing the HPCs under conditions to promote erythroid differentiation, myeloid differentiation or lymphoid differentiation, thereby producing erythroid, myeloid or lymphoid cells, wherein I) the HPCs express a non-functional MeCP2 that has essentially no binding to methylated DNA; or II) the HPCs do not express MeCP2; or III) obtaining HPCs that exhibit disrupted MeCP2 comprises contacting the HPCs with anti-MeCP2 siRNA, or anti-MeCP2 shRNA; or IV) obtaining HPCs that exhibit disrupted MeCP2 comprises contacting PSCs with anti-MeCP2 siRNA, or anti-MeCP2 shRNA, and differentiating the PSCs to produce HPCs; or V) obtaining HPCs that exhibit disrupted MeCP2 comprises engineering PSCs to disrupt the expression of MeCP2 and differentiating the PSCs to produce HPCs. I) the HPCs express a non-functional MeCP2 that has essentially no binding to methylated DNA; or II) the HPCs do not express MeCP2; or III) obtaining HPCs that exhibit disrupted MeCP2 comprises contacting the HPCs with anti-MeCP2 siRNA, or anti-MeCP2 shRNA; or IV) obtaining HPCs that exhibit disrupted MeCP2 comprises contacting PSCs with anti-MeCP2 siRNA, or anti-MeCP2 shRNA, and differentiating the PSCs to produce HPCs; or V) obtaining HPCs that exhibit disrupted MeCP2 comprises engineering PSCs to disrupt the expression of MeCP2 and differentiating the PSCs to produce HPCs.
A lock indicator and a mechanical lock assembly , comprising: a switch ; a power source ; a transmitter coupled to the power source ; and a bolt member moveable between a retracted position and an extended position with respect to a housing of the assembly , wherein the switch is configured to engage the bolt member and is actuatable by the bolt member to determine the position of the bolt member , and the transmitter is configured to transmit a signal indicative of the position of the bolt member to a remote device , wherein the switch and bolt member are located in a main body of the housing of the assembly and the power source is located in an auxiliary housing of the housing remote from the main body of the housing , characterized in that the housing includes a faceplate member and the power source is accessible through an aperture defined by the faceplate member , and in that , when the bolt member is in the extended position, a portion of the bolt member extends beyond the confines of the main body of the housing through an aperture defined by the faceplate member . a switch ; a power source ; a transmitter coupled to the power source ; and a bolt member moveable between a retracted position and an extended position with respect to a housing of the assembly , wherein the switch is configured to engage the bolt member and is actuatable by the bolt member to determine the position of the bolt member , and the transmitter is configured to transmit a signal indicative of the position of the bolt member to a remote device , the housing includes a faceplate member and the power source is accessible through an aperture defined by the faceplate member , and in that , when the bolt member is in the extended position, a portion of the bolt member extends beyond the confines of the main body of the housing through an aperture defined by the faceplate member .
A pin , wherein the pin is applied to a package body, the package body comprises the pin , a substrate , and a plastic packaging material , and the pin comprises a body and a baffle structure ; a bottom of the body is soldered to the substrate , the baffle structure is sleeved on a middle of the body , and the plastic packaging material covers the substrate and wraps a bottom-to-middle part of the body ; and the baffle structure is configured to prevent the plastic packaging material from overflowing from a cavity when the plastic packaging material is filled into the cavity, the cavity is a cavity in a mold for packaging the package body, the cavity accommodates the bottom-to-middle part of the body and the substrate , the substrate is located at a bottom of the cavity, the middle of the body is located at a top of the cavity, a side wall at the top of the cavity abuts against the baffle structure of the body, and a bottom-to-top height of the cavity is lower than a bottom-to-top height of the body , wherein the baffle structure is a skirt structure, and wherein a platform structure is further disposed between the middle and the bottom of the body , and a width of an end that is of the platform structure and that faces the middle of the body is greater than a width of the middle of the body ; and an edge that is of the platform structure and that is along a direction of the middle abuts against a skirt edge of the baffle structure to provide support for the baffle structure . a bottom of the body is soldered to the substrate , the baffle structure is sleeved on a middle of the body , and the plastic packaging material covers the substrate and wraps a bottom-to-middle part of the body ; and the baffle structure is configured to prevent the plastic packaging material from overflowing from a cavity when the plastic packaging material is filled into the cavity, the cavity is a cavity in a mold for packaging the package body, the cavity accommodates the bottom-to-middle part of the body and the substrate , the substrate is located at a bottom of the cavity, the middle of the body is located at a top of the cavity, a side wall at the top of the cavity abuts against the baffle structure of the body, and a bottom-to-top height of the cavity is lower than a bottom-to-top height of the body , wherein the baffle structure is a skirt structure, and wherein a platform structure is further disposed between the middle and the bottom of the body , and a width of an end that is of the platform structure and that faces the middle of the body is greater than a width of the middle of the body ; and an edge that is of the platform structure and that is along a direction of the middle abuts against a skirt edge of the baffle structure to provide support for the baffle structure .
An electronic device, comprising: a printed circuit board substrate with a magnetic device; a magnetometer , wherein the magnetometer is mounted on the printed circuit board substrate ; wherein the magnetometer is mounted at a location from which a distance to an edge of the printed circuit board substrate is less than a preset value; wherein the preset value is 5 millimeters; characterized in that the electronic device comprises: a protection apparatus , wherein the protection apparatus is mounted on the printed circuit board substrate and is disposed at a periphery of the magnetometer , and the protection apparatus is of a semi-enclosed structure or a fully-enclosed structure and is made of at least one material; and at least one pad, wherein the protection apparatus is mounted on the printed circuit board substrate by using the at least one pad. a printed circuit board substrate with a magnetic device; a magnetometer , wherein the magnetometer is mounted on the printed circuit board substrate ; wherein the magnetometer is mounted at a location from which a distance to an edge of the printed circuit board substrate is less than a preset value; wherein the preset value is 5 millimeters; characterized in that the electronic device comprises: a protection apparatus , wherein the protection apparatus is mounted on the printed circuit board substrate and is disposed at a periphery of the magnetometer , and the protection apparatus is of a semi-enclosed structure or a fully-enclosed structure and is made of at least one material; and at least one pad, wherein the protection apparatus is mounted on the printed circuit board substrate by using the at least one pad. a protection apparatus , wherein the protection apparatus is mounted on the printed circuit board substrate and is disposed at a periphery of the magnetometer , and the protection apparatus is of a semi-enclosed structure or a fully-enclosed structure and is made of at least one material; and at least one pad, wherein the protection apparatus is mounted on the printed circuit board substrate by using the at least one pad.
Method to implement a Virtual Primary Platform (VPP) using a Tamper Resistant Element (TRE) and an External Execution Environment (EEE), said Virtual Primary Platform (VPP) comprising a VPP Low Level Operating System (VPP LLOS) distributed across : - a VPP Process Execution Environment (VPEE) in the Tamper Resistant Element (TRE), - the External Execution Environment (EEE), said VPP Low Level Operating System (VPP LLOS) comprising: - VPP LLOS API stubs installed in the VPP Process Execution Environment (VPEE) and routing communications between the VPP Process Execution Environment (VPEE) and the External Execution Environment (EEE), - an external agent (EA) installed in the External Execution Environment (EEE) and comprising processes' codes (CO) and data (DA) stored in the External Execution Environment (EEE) to be loaded for execution into the VPP Process Execution Environment (VPEE) in order, for the VPP Process Execution Environment (VPEE) to get a secure access to VPP external processes' code (CO) and data (DA), to emulate the VPP Low Level Operating System (VPP LLOS) functions and to manage processes' switches for the execution of any VPP application relying on the Virtual Primary Platform (VPP) to be executed. - a VPP Process Execution Environment (VPEE) in the Tamper Resistant Element (TRE), - the External Execution Environment (EEE), - VPP LLOS API stubs installed in the VPP Process Execution Environment (VPEE) and routing communications between the VPP Process Execution Environment (VPEE) and the External Execution Environment (EEE), - an external agent (EA) installed in the External Execution Environment (EEE) and comprising processes' codes (CO) and data (DA) stored in the External Execution Environment (EEE) to be loaded for execution into the VPP Process Execution Environment (VPEE) in order, for the VPP Process Execution Environment (VPEE) to get a secure access to VPP external processes' code (CO) and data (DA), to emulate the VPP Low Level Operating System (VPP LLOS) functions and to manage processes' switches for the execution of any VPP application relying on the Virtual Primary Platform (VPP) to be executed.
A method of forming a component of an article of footwear , apparel, or sporting equipment, the method comprising: decorating a portion of a plurality of foam particles, wherein the decorating comprises embossing or debossing the portion of the plurality of foam particles; arranging the plurality of foam particles by depositing a layer comprising the plurality of foam particles, wherein the arranged plurality of foam particles comprises a first thermoplastic elastomeric material, and wherein the arranged plurality of foam particles has a number average particle size of 0.04 millimeters to 10 millimeters in a longest dimension; and affixing together at least a portion of the arranged plurality of foam particles, wherein the affixing comprises using actinic radiation to fuse a portion of the foam particles to each other; wherein the arranging and affixing of a plurality of foam particles are carried out for two or more iterations, and wherein the component is formed layer-wise from a plurality of layers of arranged and affixed foam particles. decorating a portion of a plurality of foam particles, wherein the decorating comprises embossing or debossing the portion of the plurality of foam particles; arranging the plurality of foam particles by depositing a layer comprising the plurality of foam particles, wherein the arranged plurality of foam particles comprises a first thermoplastic elastomeric material, and wherein the arranged plurality of foam particles has a number average particle size of 0.04 millimeters to 10 millimeters in a longest dimension; and affixing together at least a portion of the arranged plurality of foam particles, wherein the affixing comprises using actinic radiation to fuse a portion of the foam particles to each other; wherein the arranging and affixing of a plurality of foam particles are carried out for two or more iterations, and wherein the component is formed layer-wise from a plurality of layers of arranged and affixed foam particles.
Antenna apparatus for a fill level measurement device , the antenna apparatus comprising: an antenna unit for emitting a measurement signal towards a filling material surface and for receiving the measurement signal reflected by the filling material surface; a drive unit for rotating the antenna unit about an axis of rotation; characterized in that the antenna unit comprises an array designed to emit the measurement signal during the rotation the antenna unit and to receive the measurement signal; that the array comprises a plurality of radiator elements that are arranged in a plane which, together with the axis of rotation, forms an angle α that does not equal 90 degrees; that the array is a unidimensional array having a single row of radiator elements , the one row of which extends in the longitudinal direction of the antenna unit . an antenna unit for emitting a measurement signal towards a filling material surface and for receiving the measurement signal reflected by the filling material surface; a drive unit for rotating the antenna unit about an axis of rotation; characterized in that the antenna unit comprises an array designed to emit the measurement signal during the rotation the antenna unit and to receive the measurement signal; that the array comprises a plurality of radiator elements that are arranged in a plane which, together with the axis of rotation, forms an angle α that does not equal 90 degrees; that the array is a unidimensional array having a single row of radiator elements , the one row of which extends in the longitudinal direction of the antenna unit .
A sensor device comprising: a first temperature sensor configured to measure a first voltage (V1) when the sensor device is in contact with a user; a second temperature sensor disposed apart from the first temperature sensor in a thickness direction of the sensor device , and configured to measure a second voltage (V2) when the sensor device is in contact with the user; characterized by : an amplifier configured to amplify a voltage difference (ΔV) between the first voltage (V1) and the second voltage (V2), and output the amplified voltage difference (AxΔV) as a value that represents a body temperature (T core ) of the user. a first temperature sensor configured to measure a first voltage (V1) when the sensor device is in contact with a user; a second temperature sensor disposed apart from the first temperature sensor in a thickness direction of the sensor device , and configured to measure a second voltage (V2) when the sensor device is in contact with the user; characterized by : an amplifier configured to amplify a voltage difference (ΔV) between the first voltage (V1) and the second voltage (V2), and output the amplified voltage difference (AxΔV) as a value that represents a body temperature (T core ) of the user. an amplifier configured to amplify a voltage difference (ΔV) between the first voltage (V1) and the second voltage (V2), and output the amplified voltage difference (AxΔV) as a value that represents a body temperature (T core ) of the user.
An ostomy pouch comprising: an outer wall having an inlet opening and a filter , the outer wall defining an interior volume ; an internal wall structure disposed within the interior volume ; a one-way valve connected to the internal wall structure ; characterised in that it further comprises a tortuous path formed by the internal wall structure , the path having an opening at one end and the one-way valve at another end, wherein the filter is positioned within the path . an outer wall having an inlet opening and a filter , the outer wall defining an interior volume ; an internal wall structure disposed within the interior volume ; a one-way valve connected to the internal wall structure ;
A microscope system , comprising: a stage for placing a test object thereon, an imaging unit configured to image a test object , an analysis unit configured to output a feature amount of an image which is captured by the imaging unit , and a storage unit characterized in that said storage unit stores an evaluation function which has the image feature amount as a variable for evaluation of the image, in that said feature amount consists of a spatial frequency component, a histogram indicating the frequency of appearance of gray scale values, a contrast, or a maximal gradient of the image of the test object, wherein the maximal gradient amount is the maximal value of luminance value variations in a spatial luminance value profile, and in that said microscopy system further comprises a selection unit configured to select one image from two or more images comprising a specified image being specified based on a value of the evaluation function, and a changing unit configured to change the evaluation function based on the one image in a case where the one image selection by the selection unit is different from the specified image. a stage for placing a test object thereon, an imaging unit configured to image a test object , an analysis unit configured to output a feature amount of an image which is captured by the imaging unit , and a storage unit characterized in that said storage unit stores an evaluation function which has the image feature amount as a variable for evaluation of the image, in that said feature amount consists of a spatial frequency component, a histogram indicating the frequency of appearance of gray scale values, a contrast, or a maximal gradient of the image of the test object, wherein the maximal gradient amount is the maximal value of luminance value variations in a spatial luminance value profile, and in that said microscopy system further comprises a selection unit configured to select one image from two or more images comprising a specified image being specified based on a value of the evaluation function, and a changing unit configured to change the evaluation function based on the one image in a case where the one image selection by the selection unit is different from the specified image.
A drafting device for a spinning frame, wherein the drafting device includes a back top roller , a back bottom roller and a fiber bundle feed stopping device , the fiber bundle feed stopping device includes a stopping member provided with a wedge , the wedge is forced between the back top roller and the back bottom roller to block transmission of rotation from the back bottom roller to the back top roller and clamp a fiber bundle (S1), which is fed to the drafting device , with the back top roller , the stopping member is configured to move between a fiber bundle release position that is where the stopping member is separated from the back top roller and a fiber bundle clamp position that is where the back top roller and the wedge clamp the fiber bundle (S1), wherein the stopping member includes a combing portion located upstream of where the back top roller and the wedge clamp the fiber bundle (S1), wherein the combing portion is configured to, when the stopping member is at the fiber bundle clamp position while the draft device is driven, pierce the fiber bundle (S1) and allow the fiber bundle (S1) to move through the combing portion , thereby combing and untwisting the fiber bundle (S1).