mhurhangee/patent-ind-claim-en huggingface dataset:
A cryoadhesion apparatus, comprising: a remote control assembly , a valve assembly , a needle catheter assembly , and a gas cylinder , wherein the remote control assembly comprises a sheath structure and a remote control mounted in the sheath structure , the sheath structure is provided with a catheter channel for the needle catheter assembly to pass through, and two ends of the valve assembly are respectively connected to the needle catheter assembly and the gas cylinder ; the sheath structure is capable of squeezing the needle catheter assembly , wherein when squeezing is maintained, the needle catheter assembly is capable of moving along with the sheath structure under a frictional force between an inner wall of the catheter channel and the needle catheter assembly ; when the sheath structure does not squeeze the needle catheter assembly , the remote control assembly is capable of moving along the needle catheter assembly ; the remote control is configured to, when triggered, send a trigger signal to the valve assembly ; the valve assembly is configured to transport, when receiving the trigger signal, a gas from the gas bottle to the needle catheter assembly , to enable the needle catheter assembly to perform freezing; the sheath structure comprises a remote control sleeve portion , which is provided with a trigger part and a remote control chamber configured to accommodate the remote control ; and the trigger part is capable of triggering, when touched, a button switch of the remote control in the remote control chamber to enable the remote control to transmit a trigger signal when the button switch is triggered. the sheath structure is capable of squeezing the needle catheter assembly , wherein when squeezing is maintained, the needle catheter assembly is capable of moving along with the sheath structure under a frictional force between an inner wall of the catheter channel and the needle catheter assembly ; when the sheath structure does not squeeze the needle catheter assembly , the remote control assembly is capable of moving along the needle catheter assembly ; the remote control is configured to, when triggered, send a trigger signal to the valve assembly ; the valve assembly is configured to transport, when receiving the trigger signal, a gas from the gas bottle to the needle catheter assembly , to enable the needle catheter assembly to perform freezing; the sheath structure comprises a remote control sleeve portion , which is provided with a trigger part and a remote control chamber configured to accommodate the remote control ; and the trigger part is capable of triggering, when touched, a button switch of the remote control in the remote control chamber to enable the remote control to transmit a trigger signal when the button switch is triggered.
A method for bonding a first substrate to a second substrate, comprising the steps of: a. applying to one or both of the substrates a primer composition that includes i. an adhesion promoter, which is an adduct prepared by the reaction of at least one aromatic polyisocyanate compound, with an active hydrogen containing moiety of an organofunctional silane, ii. a prepolymer derived from the reaction of at least one aliphatic polyisocyanate and a polyol, and is at least partially reacted with an active hydrogen containing moiety of an organofunctional silane; iii. optionally, a solvent; and iv. an isocyanate functional prepolymer with an isocyanate content greater than 1%, and being the reaction product of a polyol having a functionality of greater than 2 and a molecular weight (M n ) greater than 300 and an aromatic polyisocyanate; b. applying an adhesive to at least one of the substrates and c. assembling the two substrates. a. applying to one or both of the substrates a primer composition that includes i. an adhesion promoter, which is an adduct prepared by the reaction of at least one aromatic polyisocyanate compound, with an active hydrogen containing moiety of an organofunctional silane, ii. a prepolymer derived from the reaction of at least one aliphatic polyisocyanate and a polyol, and is at least partially reacted with an active hydrogen containing moiety of an organofunctional silane; iii. optionally, a solvent; and iv. an isocyanate functional prepolymer with an isocyanate content greater than 1%, and being the reaction product of a polyol having a functionality of greater than 2 and a molecular weight (M n ) greater than 300 and an aromatic polyisocyanate; i. an adhesion promoter, which is an adduct prepared by the reaction of at least one aromatic polyisocyanate compound, with an active hydrogen containing moiety of an organofunctional silane, ii. a prepolymer derived from the reaction of at least one aliphatic polyisocyanate and a polyol, and is at least partially reacted with an active hydrogen containing moiety of an organofunctional silane; iii. optionally, a solvent; and iv. an isocyanate functional prepolymer with an isocyanate content greater than 1%, and being the reaction product of a polyol having a functionality of greater than 2 and a molecular weight (M n ) greater than 300 and an aromatic polyisocyanate; b. applying an adhesive to at least one of the substrates and c. assembling the two substrates.
A fine emulsion-type cosmetic comprising: an aqueous phase that is a continuous layer; an oil phase that is dispersed in the aqueous phase and comprises at least 82% by mass of a silicone oil and a hydrocarbon oil therein; a carboxy-modified silicone represented by the following formula ; a higher alcohol having 16 to 22 carbon atoms; a nonionic surfactant having a POE chain and an HLB of 5 to 10; and a dihydric glycol; wherein the fine emulsion has an average emulsion particle size at largest 150 nm; wherein each of R 1 and R 2 is a functional group represented by -O-Si(R 4 ) 3 in which R 4 is an alkyl group having 1 to 6 carbon atoms; R 3 is a monovalent hydrocarbon group having 1 to 10 carbon atoms; M is a hydrogen atom, a metal atom, or an organic cation; A is one of a linear or a branched alkylene group represented by C q H 2q ; and q is an integer of 6 to 20 and wherein a mass ratio of (oil agent)/(carboxy-modified silicone + higher alcohol + nonionic surfactant) is 1.5 or less. an aqueous phase that is a continuous layer; an oil phase that is dispersed in the aqueous phase and comprises at least 82% by mass of a silicone oil and a hydrocarbon oil therein; a carboxy-modified silicone represented by the following formula ; a higher alcohol having 16 to 22 carbon atoms; a nonionic surfactant having a POE chain and an HLB of 5 to 10; and a dihydric glycol; wherein the fine emulsion has an average emulsion particle size at largest 150 nm; wherein each of R 1 and R 2 is a functional group represented by -O-Si(R 4 ) 3 in which R 4 is an alkyl group having 1 to 6 carbon atoms; R 3 is a monovalent hydrocarbon group having 1 to 10 carbon atoms; M is a hydrogen atom, a metal atom, or an organic cation; A is one of a linear or a branched alkylene group represented by C q H 2q ; and q is an integer of 6 to 20 and wherein a mass ratio of (oil agent)/(carboxy-modified silicone + higher alcohol + nonionic surfactant) is 1.5 or less.
A cable retraction unit assembly comprising: a cable connected to a mobile device (A10); a guide housing (A20) mounted to an upper portion of a main hole (T1) provided in a tabletop (T), with the cable penetrating through the guide housing; a guide unit (A30) provided within the guide housing (A20) for passing the cable therethrough, the guide unit being configured to rotate in response to a rotating direction of the cable ; and a withdrawal unit (A40) provided at a lower portion of the main hole (T1), the withdrawal unit including a withdrawal guide (A41) for inducing retracting and extending of the cable and a recoiler (R) connected to the withdrawal guide (A41) so as to wind the cable , characterised in that at least one of the guide unit (A30) and the withdrawal guide (A41) is provided with a roller (A355, A417) that rotates in response to retracting and extending of the cable , in that the guide unit (A30) includes a locking unit (A31) and a rotor (A35) provided within the locking unit (A31), and in that the roller comprises a plurality of first rollers (A355) provided around a connection hole (A353) that is provided in the rotor (A35). a cable connected to a mobile device (A10); a guide housing (A20) mounted to an upper portion of a main hole (T1) provided in a tabletop (T), with the cable penetrating through the guide housing; a guide unit (A30) provided within the guide housing (A20) for passing the cable therethrough, the guide unit being configured to rotate in response to a rotating direction of the cable ; and a withdrawal unit (A40) provided at a lower portion of the main hole (T1), the withdrawal unit including a withdrawal guide (A41) for inducing retracting and extending of the cable and a recoiler (R) connected to the withdrawal guide (A41) so as to wind the cable , characterised in that at least one of the guide unit (A30) and the withdrawal guide (A41) is provided with a roller (A355, A417) that rotates in response to retracting and extending of the cable , in that the guide unit (A30) includes a locking unit (A31) and a rotor (A35) provided within the locking unit (A31), and in that the roller comprises a plurality of first rollers (A355) provided around a connection hole (A353) that is provided in the rotor (A35).
Device for applying a product to be distributed on the skin of a user by iontophoresis comprising: - a body intended to receive the product to be distributed comprising an electric current generator ; and, - an applicator head mounted on the body , the applicator head comprising: ∘ at least one distribution means for distributing the product to be distributed on the skin; and ∘ at least one first electrode and one second electrode separated by an inter-electrode zone , characterised in that the first and second electrodes being set back from said inter-electrode zone and receive an electric current from said generator . - a body intended to receive the product to be distributed comprising an electric current generator ; and, - an applicator head mounted on the body , the applicator head comprising: ∘ at least one distribution means for distributing the product to be distributed on the skin; and ∘ at least one first electrode and one second electrode separated by an inter-electrode zone , characterised in that the first and second electrodes being set back from said inter-electrode zone and receive an electric current from said generator . ∘ at least one distribution means for distributing the product to be distributed on the skin; and ∘ at least one first electrode and one second electrode separated by an inter-electrode zone , characterised in that the first and second electrodes being set back from said inter-electrode zone and receive an electric current from said generator .
Method of detecting breast cancer comprising: (a) obtaining a plasma sample from a subject; (b) determining the concentration of Cyr61 in the sample; (c) comparing the concentration of Cyr61 in the test sample to the concentration of Cyr61 in a reference sample; wherein Cyr61 is soluble Cyr61; wherein breast cancer is detected if the concentration of Cyr61 in the test sample is higher than in the reference sample; wherein the determination of the concentration of Cyr61 comprises detection via ELISA, and wherein the ELISA is a sandwich ELISA using two different anti-human Cyr61 antibodies binding to distinct Cyr61 epitopes. (a) obtaining a plasma sample from a subject; (b) determining the concentration of Cyr61 in the sample; (c) comparing the concentration of Cyr61 in the test sample to the concentration of Cyr61 in a reference sample; wherein Cyr61 is soluble Cyr61; wherein breast cancer is detected if the concentration of Cyr61 in the test sample is higher than in the reference sample; wherein the determination of the concentration of Cyr61 comprises detection via ELISA, and wherein the ELISA is a sandwich ELISA using two different anti-human Cyr61 antibodies binding to distinct Cyr61 epitopes.
A handheld measurement device , comprising: a sensor interface adapted to receive a sensor strip containing a fluid sample, the sensor interface including at least two contacts; a signal generator ; and a processor , the processor being configured to cause the signal generator to provide an input signal between the at least two contacts, the input signal including one or more duty cycles, each duty cycle including an excitation and a relaxation, each excitation of the one or more duty cycles having a pulse width of between about 0.3 seconds and about 0.8 seconds, wherein the processor is further configured to (i) measure at least one output signal responsive to a measurable species within less than 300 milliseconds of providing the excitation pulse of one of the one or more duty cycles, and (ii) determine a concentration of an analyte in the fluid sample in response to the measured at least one output signal. a sensor interface adapted to receive a sensor strip containing a fluid sample, the sensor interface including at least two contacts; a signal generator ; and a processor , the processor being configured to cause the signal generator to provide an input signal between the at least two contacts, the input signal including one or more duty cycles, each duty cycle including an excitation and a relaxation, each excitation of the one or more duty cycles having a pulse width of between about 0.3 seconds and about 0.8 seconds, wherein the processor is further configured to (i) measure at least one output signal responsive to a measurable species within less than 300 milliseconds of providing the excitation pulse of one of the one or more duty cycles, and (ii) determine a concentration of an analyte in the fluid sample in response to the measured at least one output signal.
A gas turbine engine comprising: a centrifugal compressor having an impeller ; a bearing housing located downstream from the impeller , the bearing housing including a bearing within an interior chamber, the bearing rotationally supporting the impeller ; and a bearing housing cover comprising: an annular collar having a flange mountable to an exterior surface of the bearing housing ; and an impeller baffle integrally formed with the annular collar , the impeller baffle having an annular body with a front baffle face positionable adjacent a rear face of the impeller , a rear baffle face , and a central baffle opening characterised in that the rear baffle face has a plurality of stiffening elements (56, 56', 56") extending from the rear baffle face to the annular collar , and in that the bearing housing cover further comprises a plurality of air passages extending at least partially axially between the front baffle face and the flange , wherein, upon mounting the flange to the exterior surface of the bearing housing , the plurality of air passages are in fluid communication with air passageways through the bearing housing . a centrifugal compressor having an impeller ; a bearing housing located downstream from the impeller , the bearing housing including a bearing within an interior chamber, the bearing rotationally supporting the impeller ; and a bearing housing cover comprising: an annular collar having a flange mountable to an exterior surface of the bearing housing ; and an impeller baffle integrally formed with the annular collar , the impeller baffle having an annular body with a front baffle face positionable adjacent a rear face of the impeller , a rear baffle face , and a central baffle opening an annular collar having a flange mountable to an exterior surface of the bearing housing ; and an impeller baffle integrally formed with the annular collar , the impeller baffle having an annular body with a front baffle face positionable adjacent a rear face of the impeller , a rear baffle face , and a central baffle opening characterised in that the rear baffle face has a plurality of stiffening elements (56, 56', 56") extending from the rear baffle face to the annular collar , and in that the bearing housing cover further comprises a plurality of air passages extending at least partially axially between the front baffle face and the flange , wherein, upon mounting the flange to the exterior surface of the bearing housing , the plurality of air passages are in fluid communication with air passageways through the bearing housing .
An apparatus for the measurement of gas-borne particles in a gas sample, the apparatus comprising a scattering chamber having an inlet and an outlet, a radiation source for generating a beam of radiation through the scattering chamber , at least part of which forms a particle detection zone , a detector for detecting the intensity of radiation from said beam which is scattered by particles passing through the particle detection zone , and a processing circuit configured to determine the presence and size of particles in a gas sample passing through the particle detection zone from the variation with time of the measured intensity of a radiation pulse from said beam scattered by individual particles and detected by the detector , characterized in that the processing circuit determines a parameter related to the velocity of detected particles taking into account both measurements of the intensity of said radiation pulse from said beam scattered by individual particles in the particle detection zone and detected by the detector , and measurements of the period of time for which said radiation pulse in said beam scattered by individual particles is detected by the detector .
An apparatus, comprising: an application controller ; a memory resource configured to: store data; and transmit the data; a safety controller coupled to the memory resource, wherein the safety controller is configured to implement safety measures in applications and is configured to: receive the data from the memory resource ; receive latched data from the application controller ; compare the data from the memory resource to the latched data from the application controller ; and transmit a flag in response to identifying a difference between the data from the memory resource and the latched data from the application controller ; and a multiplexer "MUX" coupled to the application controller and the safety controller , wherein the MUX is configured to allow the output of the commands from the application controller in response to an absence of the flag and prevent the output of the commands in response to receiving the flag from the application controller . an application controller ; a memory resource configured to: store data; and transmit the data; store data; and transmit the data; a safety controller coupled to the memory resource, wherein the safety controller is configured to implement safety measures in applications and is configured to: receive the data from the memory resource ; receive latched data from the application controller ; compare the data from the memory resource to the latched data from the application controller ; and transmit a flag in response to identifying a difference between the data from the memory resource and the latched data from the application controller ; and receive the data from the memory resource ; receive latched data from the application controller ; compare the data from the memory resource to the latched data from the application controller ; and transmit a flag in response to identifying a difference between the data from the memory resource and the latched data from the application controller ; and a multiplexer "MUX" coupled to the application controller and the safety controller , wherein the MUX is configured to allow the output of the commands from the application controller in response to an absence of the flag and prevent the output of the commands in response to receiving the flag from the application controller .
An electronic device , comprising: control circuitry ; radio-frequency transceiver circuitry coupled to the control circuitry ; a phased antenna array having a plurality of antennas coupled to the radio-frequency transceiver circuitry ; and at least one radio-frequency sensor coupled to the control circuitry and having a sensor antenna and a sensor circuit coupled to the sensor antenna that measures radio-frequency signals while the control circuitry uses the radio-frequency transceiver circuitry to transmit wireless radio-frequency signals using at least one of the plurality of antennas , the sensor antenna is not part of the phased antenna array, the sensor antenna of the at least one radio-frequency sensor receives radio-frequency signals and does not transmit any radio-frequency signals, and the control circuitry is configured to take at least one action in response to the measured radio-frequency signals that is selected from the group consisting of: tuning at least one of the plurality of antennas , switching at least one of the plurality of antennas into or out of use, adjusting the phased antenna array, and adjusting a maximum transmit power associated with using the radio-frequency transceiver circuitry to transmit the wireless radio-frequency signals. control circuitry ; radio-frequency transceiver circuitry coupled to the control circuitry ; a phased antenna array having a plurality of antennas coupled to the radio-frequency transceiver circuitry ; and at least one radio-frequency sensor coupled to the control circuitry and having a sensor antenna and a sensor circuit coupled to the sensor antenna that measures radio-frequency signals while the control circuitry uses the radio-frequency transceiver circuitry to transmit wireless radio-frequency signals using at least one of the plurality of antennas , the sensor antenna is not part of the phased antenna array, the sensor antenna of the at least one radio-frequency sensor receives radio-frequency signals and does not transmit any radio-frequency signals, and the control circuitry is configured to take at least one action in response to the measured radio-frequency signals that is selected from the group consisting of: tuning at least one of the plurality of antennas , switching at least one of the plurality of antennas into or out of use, adjusting the phased antenna array, and adjusting a maximum transmit power associated with using the radio-frequency transceiver circuitry to transmit the wireless radio-frequency signals. tuning at least one of the plurality of antennas , switching at least one of the plurality of antennas into or out of use, adjusting the phased antenna array, and adjusting a maximum transmit power associated with using the radio-frequency transceiver circuitry to transmit the wireless radio-frequency signals.