mhurhangee/patent-ind-claim-en huggingface dataset:
A method for cryopreserving hepatocytes from multiple sources comprising the steps of: A) thawing hepatocytes from a plurality of sources preserved in a cryopreservation solution comprising DMSO; B) pooling 300 to 1000 vials of hepatocytes from the plurality of sources into a preservation solution thereby diluting the concentration of DMSO; C) centrifuging the pooled hepatocytes to cause pelleting of both viable and non-viable hepatocytes; D) removing the preservation solution; E) combining the viable and non-viable pelleted hepatocytes with a cryopreservative; F) distributing the pooled hepatocytes into vials G) cryopreserving the hepatocytes in the vials A) thawing hepatocytes from a plurality of sources preserved in a cryopreservation solution comprising DMSO; B) pooling 300 to 1000 vials of hepatocytes from the plurality of sources into a preservation solution thereby diluting the concentration of DMSO; C) centrifuging the pooled hepatocytes to cause pelleting of both viable and non-viable hepatocytes; D) removing the preservation solution; E) combining the viable and non-viable pelleted hepatocytes with a cryopreservative; F) distributing the pooled hepatocytes into vials G) cryopreserving the hepatocytes in the vials
A display device attachable at an attachment point behind a steering wheel of a vehicle, the display device is configured to break at a predetermined break portion to thereby detach a main body of the display device from the attachment point in the event that a steering column attached to the steering wheel is displaced further than a predetermined distance , characterized in that the display device is attachable to the steering column or a steering module via the predetermined break portion.
A system for calorimetry comprising: a microfluidic laminar flow channel a portion of which includes a reaction chamber ; a first inlet coupled to the reaction chamber ; a second inlet coupled to the reaction chamber ; a plurality of microscale sensors disposed along the microfluidic reaction chamber ; a first fluid injector coupled to the first inlet configured to inject a first reagent bolus of a first fluid into the reaction chamber ; a second fluid injector coupled to the second inlet configured to inject a second fluid into the reaction chamber such that the volume of a second fluid in the reaction chamber is between about 4 and about 10 times greater than the volume of the first reagent bolus in the reaction chamber ; and a processor configured to calculate a calorimetry value based on a plurality of temperature measurements made at each of two or more of the plurality of microscale sensors , the plurality of temperature measurements made over a plurality of first reagent concentrations as the first reagent bolus inter-diffuses with the second fluid and flows through the microfluidic reaction chamber . a microfluidic laminar flow channel a portion of which includes a reaction chamber ; a first inlet coupled to the reaction chamber ; a second inlet coupled to the reaction chamber ; a plurality of microscale sensors disposed along the microfluidic reaction chamber ; a first fluid injector coupled to the first inlet configured to inject a first reagent bolus of a first fluid into the reaction chamber ; a second fluid injector coupled to the second inlet configured to inject a second fluid into the reaction chamber such that the volume of a second fluid in the reaction chamber is between about 4 and about 10 times greater than the volume of the first reagent bolus in the reaction chamber ; and a processor configured to calculate a calorimetry value based on a plurality of temperature measurements made at each of two or more of the plurality of microscale sensors , the plurality of temperature measurements made over a plurality of first reagent concentrations as the first reagent bolus inter-diffuses with the second fluid and flows through the microfluidic reaction chamber .
A device comprising: one or more processors; a near field communication 'NFC' module ; and an NFC antenna, wherein a transmission power of the NFC antenna is based upon a directly supplied amount of transmission current or voltage from the NFC module; characterized in that the NFC module is configured to detect a near field coupling payment transaction that requires increased NFC antenna transmission power, wherein the device is configured to switch from a proximity mode utilizing a regular NFC antenna transmission power to a mode which requires higher NFC antenna transmission power, and wherein the NFC module is configured to directly supply and control an increased amount of transmission current or voltage in response to the detection. one or more processors; a near field communication 'NFC' module ; and an NFC antenna, wherein a transmission power of the NFC antenna is based upon a directly supplied amount of transmission current or voltage from the NFC module; characterized in that the NFC module is configured to detect a near field coupling payment transaction that requires increased NFC antenna transmission power, wherein the device is configured to switch from a proximity mode utilizing a regular NFC antenna transmission power to a mode which requires higher NFC antenna transmission power, and wherein the NFC module is configured to directly supply and control an increased amount of transmission current or voltage in response to the detection.
A fusion protein comprising: - domain (a) which is a fragment of the amino acid sequence of oncostatin M or of a mutant form of oncostatin M selected from the group consisting of SEQ. No 6, SEQ. No 7, SEQ. No 8, SEQ. No 9, and SEQ. No 10, and - domain (b) which is the sequence of the Pseudomonas exotoxin A of SEQ. No 11. - domain (a) which is a fragment of the amino acid sequence of oncostatin M or of a mutant form of oncostatin M selected from the group consisting of SEQ. No 6, SEQ. No 7, SEQ. No 8, SEQ. No 9, and SEQ. No 10, and - domain (b) which is the sequence of the Pseudomonas exotoxin A of SEQ. No 11.
A method of estimating respiratory impedance, the method comprising: coupling a patient interface device to an airway of a subject to create a pneumatic system that includes the patient interface device and an airway of such a subject; oscillating pressure, flow, or volume of gas in such an airway of such a subject via an excitation source operatively coupled to the patient interface device; determining the flow and pressure of the gas in the pneumatic system to produce a respective time series representing the flow and the pressure ; characterized in that the method further comprises: transforming the respective time series to the time-frequency domain to create a transformed time series; estimating the power of the flow and the pressure from the transformed time series ; estimating respective cross spectra of the flow and the pressure based the transformed time series; estimating the respiratory impedance of the subject from the estimated power and the estimated cross spectra ; and determining confidence limits on the estimated impedance . coupling a patient interface device to an airway of a subject to create a pneumatic system that includes the patient interface device and an airway of such a subject; oscillating pressure, flow, or volume of gas in such an airway of such a subject via an excitation source operatively coupled to the patient interface device; determining the flow and pressure of the gas in the pneumatic system to produce a respective time series representing the flow and the pressure ; transforming the respective time series to the time-frequency domain to create a transformed time series; estimating the power of the flow and the pressure from the transformed time series ; estimating respective cross spectra of the flow and the pressure based the transformed time series; estimating the respiratory impedance of the subject from the estimated power and the estimated cross spectra ; and determining confidence limits on the estimated impedance .
A method for expressing a biosynthetic pathway in a recipient mammalian cell comprising: transfecting a recipient mammalian cell line with synthetic chromosome production components engineered to incorporate multiple site-specific integration sites into a synthetic platform chromosome as it is produced in the recipient mammalian cell line; transfecting the recipient mammalian cell line carrying the synthetic platform chromosome with a delivery vector comprising multiple genes capable of effectuating a biosynthetic pathway, wherein the delivery vector comprises at least one site-specific recombination site; activating site-specific recombination between the synthetic platform chromosome and the delivery vector, wherein the multiple genes capable of effectuating a first biosynthetic pathway are loaded onto the synthetic platform chromosome to produce a functioning synthetic mammalian chromosome expressing the first biosynthetic pathway; and isolating a first recipient mammalian cell comprising the synthetic mammalian chromosome, wherein the cell expresses the multiple gene products that function in the first biosynthetic pathway to synthesise one or more cellular metabolites. transfecting a recipient mammalian cell line with synthetic chromosome production components engineered to incorporate multiple site-specific integration sites into a synthetic platform chromosome as it is produced in the recipient mammalian cell line; transfecting the recipient mammalian cell line carrying the synthetic platform chromosome with a delivery vector comprising multiple genes capable of effectuating a biosynthetic pathway, wherein the delivery vector comprises at least one site-specific recombination site; activating site-specific recombination between the synthetic platform chromosome and the delivery vector, wherein the multiple genes capable of effectuating a first biosynthetic pathway are loaded onto the synthetic platform chromosome to produce a functioning synthetic mammalian chromosome expressing the first biosynthetic pathway; and isolating a first recipient mammalian cell comprising the synthetic mammalian chromosome, wherein the cell expresses the multiple gene products that function in the first biosynthetic pathway to synthesise one or more cellular metabolites.
A method for multi-rate synchronization of a sensor that provides a digital sensor output signal , and a processor arrangement that processes the sensor output signal according to a processing algorithm and that provides a processor output signal, the method comprising: operating the digital sensor to provide the sensor output signal with a first sample rate, and operating the processor arrangement to provide a processor output signal with a second sample rate, wherein the second sample rate is an integer multiple of the first sample rate, characterized in generating in the processor arrangement a trigger signal that triggers processing of the sensor output signal when a new sample of the sensor output signal is available, and inputting the new sample of the sensor output signal into the processor arrangement for processing of the sensor output signal . operating the digital sensor to provide the sensor output signal with a first sample rate, and operating the processor arrangement to provide a processor output signal with a second sample rate, wherein the second sample rate is an integer multiple of the first sample rate, characterized in generating in the processor arrangement a trigger signal that triggers processing of the sensor output signal when a new sample of the sensor output signal is available, and inputting the new sample of the sensor output signal into the processor arrangement for processing of the sensor output signal .
A sensor for use in a fluid flow application, comprising: an inlet chamber configured to receive a fluid flow from a first conduit ; an outlet chamber configured to provide the fluid flow to a second conduit ; a membrane disposed on a first surface of a substrate and separating the inlet chamber from the outlet chamber as an inlet chamber side and an outlet chamber side of the membrane , the membrane comprising a fluid passage to allow the fluid flow from the inlet chamber to the outlet chamber ; a circuit component disposed on the membrane , the circuit component having an electrical property configured to change according to a deformation of the membrane ; an electrode pair deposited on a second surface of the substrate on the outlet chamber side of the membrane , the electrode pair configured to make contact with a fluid in the fluid flow and to measure an electrical property of the fluid ; and a conductor formed on the first surface of the substrate and coupled with the circuit component , the conductor configured to provide an electrical signal based on a change in the electrical property of the circuit component , wherein the membrane comprises an epitaxial layer formed on the first surface of the substrate . an inlet chamber configured to receive a fluid flow from a first conduit ; an outlet chamber configured to provide the fluid flow to a second conduit ; a membrane disposed on a first surface of a substrate and separating the inlet chamber from the outlet chamber as an inlet chamber side and an outlet chamber side of the membrane , the membrane comprising a fluid passage to allow the fluid flow from the inlet chamber to the outlet chamber ; a circuit component disposed on the membrane , the circuit component having an electrical property configured to change according to a deformation of the membrane ; an electrode pair deposited on a second surface of the substrate on the outlet chamber side of the membrane , the electrode pair configured to make contact with a fluid in the fluid flow and to measure an electrical property of the fluid ; and a conductor formed on the first surface of the substrate and coupled with the circuit component , the conductor configured to provide an electrical signal based on a change in the electrical property of the circuit component , wherein the membrane comprises an epitaxial layer formed on the first surface of the substrate .
A haptic user interface device for a surgical simulation system , the arrangement comprising: - a frame having a fixed base , - a middle portion , rotatable around a first axis (A) in relation to the base, - an instrument receiving portion extending along an instrument longitudinal axis (C) and rotatable around a second axis (B) in relation to the middle portion, the second axis (B) being essentially perpendicular to the first axis (A), - an instrument having a shaft suspended by the instrument receiving portion so as to be pivotable around the first axis (A) and the second axis (B), and where the instrument longitudinal axis (C) is essentially perpendicular to the second axis (B) and offset with respect to the second axis (B), and - an actuator arranged in middle portion , the actuator comprising an actuating wheel , wherein the actuator is arranged to provide force feedback to a user of the surgical simulation system when moving the instrument along the instrument longitudinal axis (C) and where the actuating wheel is concentric with the second axis (B). - a frame having a fixed base , - a middle portion , rotatable around a first axis (A) in relation to the base, - an instrument receiving portion extending along an instrument longitudinal axis (C) and rotatable around a second axis (B) in relation to the middle portion, the second axis (B) being essentially perpendicular to the first axis (A), - an instrument having a shaft suspended by the instrument receiving portion so as to be pivotable around the first axis (A) and the second axis (B), and where the instrument longitudinal axis (C) is essentially perpendicular to the second axis (B) and offset with respect to the second axis (B), and - an actuator arranged in middle portion , the actuator comprising an actuating wheel , wherein the actuator is arranged to provide force feedback to a user of the surgical simulation system when moving the instrument along the instrument longitudinal axis (C) and where the actuating wheel is concentric with the second axis (B).
A three-dimensional sock-shoe comprising a shoe sole , a sock body having a bottom portion connected to said shoe sole , a foam sleeve inserted into said sock body , and at least one adhesive layer , characterized by : said foam sleeve having a shape corresponding to that of said sock body , and defining a three-dimensional foot space , said foam sleeve being made by stitching together two layered structures each of which has the shape of a shoe half, each of said layered structures successively consisting of an inner lining layer , an intermediate foam layer and an outer fabric layer ; and said at least one adhesive layer being disposed between said outer fabric layer and said sock body to adhere said outer fabric layer to said sock body ; said sock body having a pattern, and being a one-piece woven sock. said foam sleeve having a shape corresponding to that of said sock body , and defining a three-dimensional foot space , said foam sleeve being made by stitching together two layered structures each of which has the shape of a shoe half, each of said layered structures successively consisting of an inner lining layer , an intermediate foam layer and an outer fabric layer ; and said at least one adhesive layer being disposed between said outer fabric layer and said sock body to adhere said outer fabric layer to said sock body ; said sock body having a pattern, and being a one-piece woven sock.
Apparatus for melting metal material comprising a container to contain the metal material to be melted, a loading device associated with a lateral wall of said container in order to load said metal material substantially continuously into the container , and at least two pairs of electrodes to melt said metal material, each pair of electrodes being connected to a respective power unit , and said electrodes being inserted at least partly into said container , and being disposed in a pattern at the respective tops of a polygon , characterized in that each pair of electrodes comprises a first electrode and a second electrode , in that said first electrodes are located at the tops of a first side of said polygon and said second electrodes are located at the tops of a second side of said polygon , said first side and said second side defining respectively the smaller base and the larger base of a trapezoid, and in that the distance (D1) between said first side and said loading device is lower than the distance (D2) between said second side and said loading device .
A communication unit comprising: a plurality of antennas ; a plurality of radio frequency, RF, circuits respectively coupled to the plurality of antennas ; a sigma-delta modulator comprising a number of stages, each stage comprising a plurality of signal-feedforward coefficients , a filter , a summing junction and a feedback gain element , the sigma-delta modulator being coupled to the plurality of RF circuits ; and a controller operably coupled to the at least one sigma-delta modulator ; wherein the sigma-delta modulator comprises a plurality of inputs , each input coupled to a respective one of the plurality of RF circuits and configured to receive a respective one of multiple multi-phase input signals, wherein each signal-feed forward coefficient in each stage is configured to be applied to a respective one of the multiple multi-phase input signals, and the controller is configured to adjust at least one of the plurality of signal-feedforward coefficients to reduce a level of an interference signal and concurrently add wanted signals in phase and wherein the summing junction in each stage is configured to combine the multiple multi-phase input signals after application of the plurality of signal feedforward coefficients; and wherein the controller is further configured to identify beam steering parameters of wireless signals received by the plurality of antennas and in response thereto adjust at least one of the plurality of signal-feedforward coefficients of the sigma-delta modulator to effect a beam steered signal. a plurality of antennas ; a plurality of radio frequency, RF, circuits respectively coupled to the plurality of antennas ; a sigma-delta modulator comprising a number of stages, each stage comprising a plurality of signal-feedforward coefficients , a filter , a summing junction and a feedback gain element , the sigma-delta modulator being coupled to the plurality of RF circuits ; and a controller operably coupled to the at least one sigma-delta modulator ; wherein the sigma-delta modulator comprises a plurality of inputs , each input coupled to a respective one of the plurality of RF circuits and configured to receive a respective one of multiple multi-phase input signals, wherein each signal-feed forward coefficient in each stage is configured to be applied to a respective one of the multiple multi-phase input signals, and the controller is configured to adjust at least one of the plurality of signal-feedforward coefficients to reduce a level of an interference signal and concurrently add wanted signals in phase and wherein the summing junction in each stage is configured to combine the multiple multi-phase input signals after application of the plurality of signal feedforward coefficients; and wherein the controller is further configured to identify beam steering parameters of wireless signals received by the plurality of antennas and in response thereto adjust at least one of the plurality of signal-feedforward coefficients of the sigma-delta modulator to effect a beam steered signal.