mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus comprising a valve having: a valve body configured with an upstream port to allow upstream pressure to be measured and a downstream port to allow downstream pressure to be measured; and a valve ball configured in the valve body so as to be operable between open and closed positions to allow for fluid flow (F) and no fluid flow, respectively, and also configured with a calibrated member configured to form a calibrated orifice to allow the fluid flow, the calibrated member having a flow coefficient, an upstream pressure tap located upstream of the calibrated orifice and in fluidic communication with the upstream port in order to measure upstream pressure of the fluid flow (F) when the valve ball is in the open position, and a downstream pressure tap located downstream of the calibrated orifice and in fluidic communication with the downstream port in order to measure downstream pressure of the fluid flow (F) when the valve ball is in the open position, so that a direct measurement of the fluid flow (F) may be determined based at least partly on signaling containing information about a measured pressure differential between upstream and downstream pressure taps (14b, 14c; 114b, 114c) in relation to the flow coefficient of the calibrated orifice when the valve ball is substantially in the open position, the apparatus characterized by the upstream port and the downstream port being configured on a common axis (A), on which the valve ball is configured to rotate. a valve body configured with an upstream port to allow upstream pressure to be measured and a downstream port to allow downstream pressure to be measured; and a valve ball configured in the valve body so as to be operable between open and closed positions to allow for fluid flow (F) and no fluid flow, respectively, and also configured with a calibrated member configured to form a calibrated orifice to allow the fluid flow, the calibrated member having a flow coefficient, an upstream pressure tap located upstream of the calibrated orifice and in fluidic communication with the upstream port in order to measure upstream pressure of the fluid flow (F) when the valve ball is in the open position, and a downstream pressure tap located downstream of the calibrated orifice and in fluidic communication with the downstream port in order to measure downstream pressure of the fluid flow (F) when the valve ball is in the open position, so that a direct measurement of the fluid flow (F) may be determined based at least partly on signaling containing information about a measured pressure differential between upstream and downstream pressure taps (14b, 14c; 114b, 114c) in relation to the flow coefficient of the calibrated orifice when the valve ball is substantially in the open position, the apparatus characterized by the upstream port and the downstream port being configured on a common axis (A), on which the valve ball is configured to rotate.
A bag-in-keg container: - a container body (C); - a bag (J) within the container body; - a two-port valve (V) providing a first pathway (A) for gas and a second pathway (B) for liquid, said first pathway communicating with a space between the container (C) and the bag (J), and the second pathway communicating with the interior of the bag; - a container dip tube (D) within the bag connected to the second pathway (B) of the two port valve (V); - wherein an end section of the container dip tube (D) has a flow terminal , said flow terminal defining a flow passage arranged to communicate with said liquid flow path; characterised in that - said flow terminal includes a counter-flow portion leading to an opening , whereby the direction of liquid flow through said opening is reversed relative to the direction of liquid flow through said end section of the container dip tube (D); - said flow terminal includes an outer wall to surround the end section of said dip tube, wherein said counter-flow portion is defined by a space between said outer wall and said end section; - said flow terminal includes an end wall closing one end of said outer wall; - said flow terminal includes spacer means (7; 17) forming a gap between said end section of the dip tube and said end wall . - a container body (C); - a bag (J) within the container body; - a two-port valve (V) providing a first pathway (A) for gas and a second pathway (B) for liquid, said first pathway communicating with a space between the container (C) and the bag (J), and the second pathway communicating with the interior of the bag; - a container dip tube (D) within the bag connected to the second pathway (B) of the two port valve (V); - wherein an end section of the container dip tube (D) has a flow terminal , said flow terminal defining a flow passage arranged to communicate with said liquid flow path; characterised in that - said flow terminal includes a counter-flow portion leading to an opening , whereby the direction of liquid flow through said opening is reversed relative to the direction of liquid flow through said end section of the container dip tube (D); - said flow terminal includes an outer wall to surround the end section of said dip tube, wherein said counter-flow portion is defined by a space between said outer wall and said end section; - said flow terminal includes an end wall closing one end of said outer wall; - said flow terminal includes spacer means (7; 17) forming a gap between said end section of the dip tube and said end wall .
A method for determining if a cell is cancerous or precancerous, comprising: determining a 5-methylcytosine content and spatial nuclear co-distribution of the SmC content and global DNA (gDNA) in a nucleus of the cell, wherein the SmC content is determined after the cell has been subjected to (a) immunofluorescence staining and then, the spatial nuclear co-distribution of the SmC content and gDNA is determined after the cell has been subj ected to (b) counterstaining, wherein determining the spatial nuclear co-distribution of the SmC content and gDNA comprises generating a scatter plotting of the SmC content and content of the gDNA for the nucleus; and determining that the cell is cancerous or precancerous if the SmC content is significantly lower, and/or a regression-line angle of the scatter plotting is smaller than those in a non-cancerous or non-precancerous reference cell and/or a non-cancerous or non-precancerous reference cell population, when the gDNA content defines x-axis, the SmC content defines y-axis, and the regression-line angle is with the x-axis of the scatter plotting, or determining that the cell is not cancerous or not precancerous if the SmC content and spatial nuclear co-distribution of the SmC content and gDNA are not significantly different from those of a non-cancerous or non-precancerous reference cell and/or a non-cancerous or non-precancerous reference cell population. determining a 5-methylcytosine content and spatial nuclear co-distribution of the SmC content and global DNA (gDNA) in a nucleus of the cell, wherein the SmC content is determined after the cell has been subjected to (a) immunofluorescence staining and then, the spatial nuclear co-distribution of the SmC content and gDNA is determined after the cell has been subj ected to (b) counterstaining, wherein determining the spatial nuclear co-distribution of the SmC content and gDNA comprises generating a scatter plotting of the SmC content and content of the gDNA for the nucleus; and determining that the cell is cancerous or precancerous if the SmC content is significantly lower, and/or a regression-line angle of the scatter plotting is smaller than those in a non-cancerous or non-precancerous reference cell and/or a non-cancerous or non-precancerous reference cell population, when the gDNA content defines x-axis, the SmC content defines y-axis, and the regression-line angle is with the x-axis of the scatter plotting, or determining that the cell is not cancerous or not precancerous if the SmC content and spatial nuclear co-distribution of the SmC content and gDNA are not significantly different from those of a non-cancerous or non-precancerous reference cell and/or a non-cancerous or non-precancerous reference cell population.
A straddled vehicle comprising: a body frame including a head pipe ; a seat configured for a rider to sit on, the seat being disposed rearward of the head pipe with regard to a front-rear direction of the vehicle; a fuel tank provided between the head pipe and the seat ; an ahead-of-seat element located rearward of the head pipe and frontward of the seat with regard to the front-rear direction of the vehicle; and a seat height adjustment mechanism capable of adjusting height of the seat in at least two steps with regard to an up-down direction of the vehicle, wherein, when the seat is at a first height, substantially no interspace exists between the seat and the ahead-of-seat element , and wherein the ahead-of-seat element is a tank cover member that includes a portion covering a rear end portion of the fuel tank , or the ahead-of-seat element is the fuel tank provided between the head pipe and the seat , the straddled vehicle further characterised by a spacer member , the spacer member is to be disposed between the ahead-of-seat element and the seat being at a second height which is lower than the first height, the spacer member filling an interspace between the ahead-of-seat element and the seat being at the second height. a body frame including a head pipe ; a seat configured for a rider to sit on, the seat being disposed rearward of the head pipe with regard to a front-rear direction of the vehicle; a fuel tank provided between the head pipe and the seat ; an ahead-of-seat element located rearward of the head pipe and frontward of the seat with regard to the front-rear direction of the vehicle; and a seat height adjustment mechanism capable of adjusting height of the seat in at least two steps with regard to an up-down direction of the vehicle, wherein, when the seat is at a first height, substantially no interspace exists between the seat and the ahead-of-seat element , and wherein the ahead-of-seat element is a tank cover member that includes a portion covering a rear end portion of the fuel tank , or the ahead-of-seat element is the fuel tank provided between the head pipe and the seat , the straddled vehicle further characterised by a spacer member , the spacer member is to be disposed between the ahead-of-seat element and the seat being at a second height which is lower than the first height, the spacer member filling an interspace between the ahead-of-seat element and the seat being at the second height.
A method , comprising: receiving , by a processor , a first pen input from a first pen and a second pen input from a second pen at a kernel space human interface device, HID, class driver , wherein the first pen and the second pen are interacting with a single display and the kernel space HID class driver is located within an operating system of a device including the processor ; forwarding, by the processor , the first pen input and the second pen input from the kernel space HID class driver to a user space HID class driver , wherein the user space HID class driver is located in a user space where an application is run; forwarding, by the processor , the first pen input and the second pen input from the user space HID class driver to a pen input library via the operating system in response to a notification to the pen input library that the first pen input and the second pen input are available for retrieval from the operating system, wherein the user space HID class driver provides functionality to allow the pen input library to understand the first and second pen inputs coming from the kernel space; translating, by the processor , the first pen input into a first output and the second pen input into a second output that are to be executed by the application , wherein the translation is provided by the pen input library and the pen input library is to maintain separate pen input streams for each pen ; and sending, by the processor , the first output and the second output to the application , wherein the application executes the first output and the second output simultaneously. receiving , by a processor , a first pen input from a first pen and a second pen input from a second pen at a kernel space human interface device, HID, class driver , wherein the first pen and the second pen are interacting with a single display and the kernel space HID class driver is located within an operating system of a device including the processor ; forwarding, by the processor , the first pen input and the second pen input from the kernel space HID class driver to a user space HID class driver , wherein the user space HID class driver is located in a user space where an application is run; forwarding, by the processor , the first pen input and the second pen input from the user space HID class driver to a pen input library via the operating system in response to a notification to the pen input library that the first pen input and the second pen input are available for retrieval from the operating system, wherein the user space HID class driver provides functionality to allow the pen input library to understand the first and second pen inputs coming from the kernel space; translating, by the processor , the first pen input into a first output and the second pen input into a second output that are to be executed by the application , wherein the translation is provided by the pen input library and the pen input library is to maintain separate pen input streams for each pen ; and sending, by the processor , the first output and the second output to the application , wherein the application executes the first output and the second output simultaneously.
Item of storage furniture comprising: a storage base comprising two first opposite lateral walls , a first rear wall , a first upper wall defining the top of the base and an opening arranged at the front of the base , the storage base being configured to be put on the ground on edges of the two first opposite lateral walls ; a movable storage element dimensioned to be received in the opening arranged on the storage base , the storage element being made up of two second opposite lateral walls , a second rear wall , the second rear wall thus comprising two sides which are connected to the two second lateral walls and thus forming a space delimited by the two second lateral walls and the second rear wall , the storage element being configured such that edges of the second rear wall and of the two second opposite lateral walls rest essentially on the ground and can slide inside the storage base in such a way that the second rear wall is positioned in the direction away from the first rear wall , the space being empty down to the ground. a storage base comprising two first opposite lateral walls , a first rear wall , a first upper wall defining the top of the base and an opening arranged at the front of the base , the storage base being configured to be put on the ground on edges of the two first opposite lateral walls ; a movable storage element dimensioned to be received in the opening arranged on the storage base , the storage element being made up of two second opposite lateral walls , a second rear wall , the second rear wall thus comprising two sides which are connected to the two second lateral walls and thus forming a space delimited by the two second lateral walls and the second rear wall , the storage element being configured such that edges of the second rear wall and of the two second opposite lateral walls rest essentially on the ground and can slide inside the storage base in such a way that the second rear wall is positioned in the direction away from the first rear wall , the space being empty down to the ground.
A heatable centre wall for a beehive for the hyperthermal reduction of varroa and/or for heating honeycombs for maximizing the harvest yields, characterized in that the centre wall comprises a continuous PTC heating varnish having a non-linear PTC effect, wherein the centre wall has on at least one side of the PTC heating varnish a layer having a comb pattern.
A waste discharge monitoring system comprising a waste discharge monitor with a tamper resistant means comprising: a valve , a power supply , a flow meter adapted to detect and measure waste passing through the valve, a sensor and a recorder which is adapted to receive a GPS signal and to record the GPS coordinates upon receipt of a signal from the sensor , the sensor is arranged to detect opening/closing of the valve and to transmit a signal to the recorder to log when the valve is opened/closed, the recorder is adapted to record the signal indicating opening/closing of the valve, so that the GPS coordinates of the vessel, in which the waste discharge monitor is installed, corresponding to where the valve is opened/closed, are recorded; wherein the recorder includes a memory means adapted record and store collected data including the GPS coordinates of the vessel and the time and date when the valve is open/closed and the amount (volume) of waste that is discharged through the valve as detected and measured by the flow meter.
An antibody which is capable of specific binding to Lymphocyte antigen 75 for use in treatment of ovarian cancer or lung cancer wherein said antibody contains or is conjugated to a therapeutic moiety.
Cosmetic aircraft mirror for personal use, comprising a laminate of: - at least one glass sheet with a maximum thickness of 1.25 mm; - at least one fastening layer connected to the glass sheet; - at least one mirror layer arranged between the glass sheet and the fastening layer , wherein the mirror has a substantially planar geometry characterized in that said glass sheet is hardened, in that said fastening layer has a maximum thickness of 0.5 mm, and in that said fastening layer comprises at least one fibre-reinforced thermosetting polymer. - at least one glass sheet with a maximum thickness of 1.25 mm; - at least one fastening layer connected to the glass sheet; - at least one mirror layer arranged between the glass sheet and the fastening layer , wherein the mirror has a substantially planar geometry
A polymer film which comprises: a base film layer comprising a polyamide-based resin; an olefinic polymer compound; and a copolymer containing a polyamide-based segment and a polyether-based segment; and an adhesive layer formed on at least one side of the base film layer and containing a resorcinol-formalin-latex (RFL)-based adhesive, wherein the content of the polyether-based segment of the copolymer is more than 2 % by weight and less than 15 % by weight with respect to the total weight of the base film layer, and wherein the base film layer has an absolute weight average molecular weight measured by using a light scattering phenomenon of 50,000 to 1,000,000, and the olefinic polymer compound includes a dicarboxylic acid or its acid anhydride-grafted olefinic polymer or copolymer.
A crystal (CR) for use in a device for spectro-spatial processing of optical signals by means of a spectral hole burning, having the chemical formula Y 3(i-x-y) Tm 3y M 3x Al 5 O 12 , with M representing a trivalent cation designated M 3+ which is different from thulium and which is selected so that it replaces some of the trivalent yttrium cations designated Y 3+ , x representing the substitution level of the cation M 3+ , and y representing the substitution level of the trivalent thulium cation designated Tm 3+ , the cation M 3+ belonging to the group of lanthanides or to the group of transition metals, the cation Tm 3+ having an electron structure which comprises a base level ( 3 H 6 ), a pumping level ( 3 H 4 ), an intermediate metastable level and a first transition (T1(Tm), T1'(Tm)) between the metastable level and the base level, the cation M 3+ having an electron structure which comprises a first transition (T1(M)) which resonates with the first transition (T1(Tm), T1,(Tm)) of the cation Tm 3+ . the cation M 3+ belonging to the group of lanthanides or to the group of transition metals, the cation Tm 3+ having an electron structure which comprises a base level ( 3 H 6 ), a pumping level ( 3 H 4 ), an intermediate metastable level and a first transition (T1(Tm), T1'(Tm)) between the metastable level and the base level, the cation M 3+ having an electron structure which comprises a first transition (T1(M)) which resonates with the first transition (T1(Tm), T1,(Tm)) of the cation Tm 3+ .
A control system configured for controlling an adjustable output voltage provided to a heater for semiconductor processing tools, the control system comprising: a controller configured to: determine an input parameter based on an electrical characteristic of the heater , determine an output voltage (V OUT ) for the heater based on the input parameter and a desired setpoint, wherein the desired setpoint is based on an operational state of the heater , and transmit a signal to a power converter to generate the output voltage (V OUT ). determine an input parameter based on an electrical characteristic of the heater , determine an output voltage (V OUT ) for the heater based on the input parameter and a desired setpoint, wherein the desired setpoint is based on an operational state of the heater , and transmit a signal to a power converter to generate the output voltage (V OUT ).
An assembly comprising: an optical gimbal ; an inertial measurement unit located on the optical gimbal to calculate the center of mass of the optical gimbal; and a multi-axis balancing system for calibrating the optical gimbal , comprising: a) a gimbal platform mounted to the optical gimbal, the gimbal platform defining a pitch axis (Y 2 ) and a roll axis (X 2 ); b) a mass mounted for linear movement relative to the pitch axis and the roll axis of the gimbal platform, to locate a balance point for the optical gimbal in response to feedback from the inertial measurement unit, the feedback relating to the calculated center of mass of the optical gimbal; and characterised in that the multi-axis balancing system further comprises: c) a multi-axis drive assembly for effectuating the linear movement of the mass relative to the pitch axis (X2) and the roll axis (Y2) of the gimbal platform , wherein the multi-axis drive assembly includes a first linear actuator for moving the mass relative to the roll axis (Y2) of the gimbal platform and a second linear actuator for moving the mass relative to the pitch axis (X2) of the gimbal platform. an optical gimbal ; an inertial measurement unit located on the optical gimbal to calculate the center of mass of the optical gimbal; and a multi-axis balancing system for calibrating the optical gimbal , comprising: a) a gimbal platform mounted to the optical gimbal, the gimbal platform defining a pitch axis (Y 2 ) and a roll axis (X 2 ); b) a mass mounted for linear movement relative to the pitch axis and the roll axis of the gimbal platform, to locate a balance point for the optical gimbal in response to feedback from the inertial measurement unit, the feedback relating to the calculated center of mass of the optical gimbal; and a) a gimbal platform mounted to the optical gimbal, the gimbal platform defining a pitch axis (Y 2 ) and a roll axis (X 2 ); b) a mass mounted for linear movement relative to the pitch axis and the roll axis of the gimbal platform, to locate a balance point for the optical gimbal in response to feedback from the inertial measurement unit, the feedback relating to the calculated center of mass of the optical gimbal; and characterised in that the multi-axis balancing system further comprises: c) a multi-axis drive assembly for effectuating the linear movement of the mass relative to the pitch axis (X2) and the roll axis (Y2) of the gimbal platform , wherein the multi-axis drive assembly includes a first linear actuator for moving the mass relative to the roll axis (Y2) of the gimbal platform and a second linear actuator for moving the mass relative to the pitch axis (X2) of the gimbal platform.