mhurhangee/patent-ind-claim-en huggingface dataset:
A medical instrument processor comprising: (a) an enclosure for holding a medical instrument; (b) a liquid distribution system configured to deliver a disinfection solution to a medical instrument within the enclosure, the liquid distribution system comprising a liquid outlet ; (c) a disinfectant concentration measuring subsystem comprising: (i) a first mixing chamber in fluid communication with the liquid outlet , (ii) a concentration analysis assembly that is operable to determine a concentration of disinfectant in a sample solution that is output from the first mixing chamber , (iii) a reservoir configured to contain a reagent solution, wherein the reservoir is in fluid communication with the first mixing chamber , and (iv) a first pump in fluid communication with the reservoir and a second pump in fluid communication with the liquid outlet, wherein the first and second pumps are simultaneously driven by a dual-head stepper motor and configured to pump the disinfection solution and the reagent solution into the first mixing chamber. (a) an enclosure for holding a medical instrument; (b) a liquid distribution system configured to deliver a disinfection solution to a medical instrument within the enclosure, the liquid distribution system comprising a liquid outlet ; (c) a disinfectant concentration measuring subsystem comprising: (i) a first mixing chamber in fluid communication with the liquid outlet , (ii) a concentration analysis assembly that is operable to determine a concentration of disinfectant in a sample solution that is output from the first mixing chamber , (iii) a reservoir configured to contain a reagent solution, wherein the reservoir is in fluid communication with the first mixing chamber , and (iv) a first pump in fluid communication with the reservoir and a second pump in fluid communication with the liquid outlet, wherein the first and second pumps are simultaneously driven by a dual-head stepper motor and configured to pump the disinfection solution and the reagent solution into the first mixing chamber. (i) a first mixing chamber in fluid communication with the liquid outlet , (ii) a concentration analysis assembly that is operable to determine a concentration of disinfectant in a sample solution that is output from the first mixing chamber , (iii) a reservoir configured to contain a reagent solution, wherein the reservoir is in fluid communication with the first mixing chamber , and (iv) a first pump in fluid communication with the reservoir and a second pump in fluid communication with the liquid outlet, wherein the first and second pumps are simultaneously driven by a dual-head stepper motor and configured to pump the disinfection solution and the reagent solution into the first mixing chamber.
A method of determining an effect of a liquid sample on light, the method comprising: rotating an assay device comprising one or more chambers for containing the liquid sample; directing light from a light source to the rotating assay device such that the light passes through the one or more chambers as each of the one or more chambers is in a respective predetermined configuration relative to the light source and a light receiver; receiving , at the light receiver, light from the light source that has passed through the one or more chambers within the rotating assay device for at least one complete rotation of the assay device; determining a set of light intensity measurements for each complete rotation of the assay device; determining the number of measurements that meet a light intensity condition in one of the sets of measurements; changing the speed of rotation of the assay device based on the determined number of measurements that met the light intensity condition; determining measurements within each set that were obtained when the light passed through the one or more chambers; and determining, using the measurements that were obtained when the light passed through the one or more chambers, the effect of the liquid sample on the light from the light source. rotating an assay device comprising one or more chambers for containing the liquid sample; directing light from a light source to the rotating assay device such that the light passes through the one or more chambers as each of the one or more chambers is in a respective predetermined configuration relative to the light source and a light receiver; receiving , at the light receiver, light from the light source that has passed through the one or more chambers within the rotating assay device for at least one complete rotation of the assay device; determining a set of light intensity measurements for each complete rotation of the assay device; determining the number of measurements that meet a light intensity condition in one of the sets of measurements; changing the speed of rotation of the assay device based on the determined number of measurements that met the light intensity condition; determining measurements within each set that were obtained when the light passed through the one or more chambers; and determining, using the measurements that were obtained when the light passed through the one or more chambers, the effect of the liquid sample on the light from the light source.
An end user device (100, 2426, 55 12, 5712), comprising: one or more modems configured to connected to one or more access networks, the one or more access networks including at least a first access network; a user interface ; memory configured to store: a first application program, a first service policy associated with the first application program, the first service policy comprising one or more agent instructions to be implemented when the first application program initiates or attempts to initiate communication over the first access network, and a first application credential, the first application credential associated with the first application program; and a service processor comprising one or more agents configured to: implement the one or more agent instructions when the first application program initiates or attempts to initiate communication over the first access network, utilize the first application credential to perform a first application configuration check, wherein the first application configuration check comprises comparing the first application credential to a candidate application configuration associated with an application identifier, the application identifier consistent with a first application program application identifier, and if the first application configuration check does not pass, take an action. one or more modems configured to connected to one or more access networks, the one or more access networks including at least a first access network; a user interface ; a first application program, a first service policy associated with the first application program, the first service policy comprising one or more agent instructions to be implemented when the first application program initiates or attempts to initiate communication over the first access network, and a first application credential, the first application credential associated with the first application program; and implement the one or more agent instructions when the first application program initiates or attempts to initiate communication over the first access network, utilize the first application credential to perform a first application configuration check, wherein the first application configuration check comprises comparing the first application credential to a candidate application configuration associated with an application identifier, the application identifier consistent with a first application program application identifier, and if the first application configuration check does not pass, take an action.
A bending machine, in particular a press brake, having an upper beam and a lower beam , wherein the upper beam is movable in a working direction (z) of the bending machine relative to the lower beam , in order to form a workpiece, which is inserted between the upper beam and the lower beam via a front side of the bending machine , by bending along a bending line, which extends in a width direction (y) of the bending machine , the bending machine including a safety system having a first functional element and a further functional element for monitoring a safety area between both functional elements and between the upper beam and the lower beam , the safety system being arranged to follow the movement of the upper beam in the working direction (z), wherein the first functional element and the further functional element are mechanically connected to one another via a flexible tractive force transmission means and an adjustment device for changing the position of the functional elements , wherein the adjustment device includes a coupling section movably guided in the working direction (z), coupled to the flexible tractive force transmission means in order to convert a movement of the coupling section into a movement of the flexible tractive force transmission means , which causes a path-identical change in position of the functional elements in the working direction (z) relative to the upper beam , characterized in that the adjustment device is a manual adjustment device by which the movement of the coupling section is effected via a mechanical application of force by an operator, where the adjustment device comprises a tension-proof adjusting element having a handle , which is connected in the interior of the bending machine to the coupling section located there, wherein the tension-proof adjusting element extends from the interior of the bending machine through a body part of the bending machine to the handle , the handle being accessible from the exterior of the bending machine.
A capacitive coupling system configured as part of an integrated circuit to block DC components from an amplifier comprising: an input configured to receive an input signal, the input signal having a DC component; a voltage divider network having an input, an output, at least one resistor and at least one capacitor, the input configured to receive the signal having a DC component such that the voltage divider network blocks the DC component and an amplifier having an input connected to the output of the voltage divider network wherein the voltage divider network comprises a first impedance element and a second impedance element , the first impedance element having an input and an output, the input configured to receive the input signal such that the first impedance element blocks the DC component, and the second impedance element configured to connect between the output of the first impedance element and ground, characterized in that the first impedance element and the second impedance element each comprise a resistor ) in series with a capacitor ; and the system further comprising an impedance matching element connected between the input and ground, the impedance matching element configured to match an input impedance of the amplifier to a data source, wherein the impedance matching element comprises at least one capacitor connected between the input and ground. an input configured to receive an input signal, the input signal having a DC component; a voltage divider network having an input, an output, at least one resistor and at least one capacitor, the input configured to receive the signal having a DC component such that the voltage divider network blocks the DC component and an amplifier having an input connected to the output of the voltage divider network wherein the voltage divider network comprises a first impedance element and a second impedance element , the first impedance element having an input and an output, the input configured to receive the input signal such that the first impedance element blocks the DC component, and the second impedance element configured to connect between the output of the first impedance element and ground, characterized in that the first impedance element and the second impedance element each comprise a resistor ) in series with a capacitor ; and the system further comprising an impedance matching element connected between the input and ground, the impedance matching element configured to match an input impedance of the amplifier to a data source, wherein the impedance matching element comprises at least one capacitor connected between the input and ground.
A method for detecting a dirty region comprising a modification of three dimensional graphics and graphics primitives within a frame encompassing three dimensional graphics and three dimensional graphics primitives, the method comprising: intercepting , via an agent executing on a local computing machine , a function call issued by an application generating three dimensional graphics commands; identifying , by the agent, in the intercepted function call, a drawing region within the frame containing three dimensional graphics generated by the application ; determining at least a portion of the three dimensional graphics commands, associated with the drawing region within the frame , changed since a previously intercepted function call; extracting the changed portion of the three dimensional graphics commands; determining an absence of the identified drawing region from a back buffer; and excluding, responsive to determining the absence of the identified drawing region from the back buffer, the identified drawing region so that the changed portion only applies directly to the back buffer instead of indirectly. intercepting , via an agent executing on a local computing machine , a function call issued by an application generating three dimensional graphics commands; identifying , by the agent, in the intercepted function call, a drawing region within the frame containing three dimensional graphics generated by the application ; determining at least a portion of the three dimensional graphics commands, associated with the drawing region within the frame , changed since a previously intercepted function call; extracting the changed portion of the three dimensional graphics commands; determining an absence of the identified drawing region from a back buffer; and excluding, responsive to determining the absence of the identified drawing region from the back buffer, the identified drawing region so that the changed portion only applies directly to the back buffer instead of indirectly.
An article of footwear comprising: an upper ; and a sole structure coupled to the upper , wherein the sole structure comprises: an auxetic sole assembly including: an auxetic layer defining a plurality of apertures ; and a base layer disposed adjacent to the auxetic layer , wherein the base layer includes a base body and a plurality of protuberances extending from the base body , and each of the plurality of protuberances is disposed within a respective one of the plurality of apertures , characterised in that the auxetic layer includes a first material, the base layer includes a second material, the first material is more rigid than the second material, and the second material is less rigid than the first material to allow the protuberances to extend out of the apertures upon application of force to the auxetic sole assembly .
A method of wireless communication performed by a transmitter device, comprising: partitioning a bandwidth of a downlink communication channel into multiple, non-overlapping sub-bands separated by a guard band or a similar spacing; assigning different sub-bands, of the multiple, non-overlapping sub-bands, to different recipient devices, wherein each sub-band is assigned to a respective recipient device based at least in part on bandwidth capabilities of the recipient devices; and forming a plurality of respective beams for the different recipient devices, wherein each beam, of the plurality of respective beams, occupies a respective sub-band of the different sub-bands assigned to the different recipient devices. partitioning a bandwidth of a downlink communication channel into multiple, non-overlapping sub-bands separated by a guard band or a similar spacing; assigning different sub-bands, of the multiple, non-overlapping sub-bands, to different recipient devices, wherein each sub-band is assigned to a respective recipient device based at least in part on bandwidth capabilities of the recipient devices; and forming a plurality of respective beams for the different recipient devices, wherein each beam, of the plurality of respective beams, occupies a respective sub-band of the different sub-bands assigned to the different recipient devices.
An encapsulant for a PV module, comprising: an ethylene/a-olefin-based copolymer; a silane modified ethylene/a-olefin-based copolymer; and a heat resistant polymer resin having a melting point (Tm) in a range of 100 to 150°C and which is higher than the melting point of the ethylene/a-olefin-based co-polymer, wherein the heat resistant polymer resin is included at 0.01 parts by weight or more but less than 3 parts by weight with respect to 100 parts by weight of a mixture of the ethylene/a-olefin-based copolymer and the silane modified ethylene/a-olefin-based copolymer, wherein the heat resistant polymer resin is a low density polyethylene LDPE, wherein the heat resistant polymer resin has a melt index (MI) in a range of 0.1 g/10 min to 40 g/10 min at a temperature of 190°C and a load of 2.16 kg. an ethylene/a-olefin-based copolymer; a silane modified ethylene/a-olefin-based copolymer; and a heat resistant polymer resin having a melting point (Tm) in a range of 100 to 150°C and which is higher than the melting point of the ethylene/a-olefin-based co-polymer, wherein the heat resistant polymer resin is included at 0.01 parts by weight or more but less than 3 parts by weight with respect to 100 parts by weight of a mixture of the ethylene/a-olefin-based copolymer and the silane modified ethylene/a-olefin-based copolymer, wherein the heat resistant polymer resin is a low density polyethylene LDPE, wherein the heat resistant polymer resin has a melt index (MI) in a range of 0.1 g/10 min to 40 g/10 min at a temperature of 190°C and a load of 2.16 kg.
A security apparatus for a portable electronic device, the security apparatus comprising: a lock body ; an actuator assembly supported by the lock body , the actuator assembly configured to move between a first position and a second position; a lock tip removably coupled to the lock body , the lock tip configured to selectively engage the portable electronic device, wherein the lock tip is movable by the actuator assembly between a locked position, in which the lock tip is secured to the portable electronic device, and an unlocked position, in which the lock tip is unsecured from the portable electronic device; and a retainer coupled to the lock body and separate from the actuator assembly , the retainer configured to move between a holding position in which the retainer holds the lock tip relative to the lock body , and a release position, in which the retainer permits the lock tip to be removed from the lock body , characterised in that the retainer is accessible when the lock tip is in the unlocked position and in the locked position. a lock body ; an actuator assembly supported by the lock body , the actuator assembly configured to move between a first position and a second position; a lock tip removably coupled to the lock body , the lock tip configured to selectively engage the portable electronic device, wherein the lock tip is movable by the actuator assembly between a locked position, in which the lock tip is secured to the portable electronic device, and an unlocked position, in which the lock tip is unsecured from the portable electronic device; and a retainer coupled to the lock body and separate from the actuator assembly , the retainer configured to move between a holding position in which the retainer holds the lock tip relative to the lock body , and a release position, in which the retainer permits the lock tip to be removed from the lock body ,
A motor drive apparatus comprising: a drive device driving a motor; a fuel cell generating power; a fuel cell auxiliary consuming power from an interconnection point between the drive device and the fuel cell , and driving said fuel cell ; a voltage converter including a switching element ( Q1, Q2 ) and a reactor ( L1 ) and having said switching element ( Q1, Q2 ) switched to convert DC voltage between a DC power supply , and the interconnection point between said drive device , said fuel cell and said fuel cell auxiliary ; and a control circuit controlling said voltage converter to stop said switching element from switching while an amount of power supplied via said voltage converter from said interconnection point between said drive device , said fuel cell and said fuel cell auxiliary toward said DC power supply to charge said DC power supply is smaller than a power loss value in said voltage converter . a drive device driving a motor; a fuel cell generating power; a fuel cell auxiliary consuming power from an interconnection point between the drive device and the fuel cell , and driving said fuel cell ; a voltage converter including a switching element ( Q1, Q2 ) and a reactor ( L1 ) and having said switching element ( Q1, Q2 ) switched to convert DC voltage between a DC power supply , and the interconnection point between said drive device , said fuel cell and said fuel cell auxiliary ; and a control circuit controlling said voltage converter to stop said switching element from switching while an amount of power supplied via said voltage converter from said interconnection point between said drive device , said fuel cell and said fuel cell auxiliary toward said DC power supply to charge said DC power supply is smaller than a power loss value in said voltage converter .
An aromatic polycarbonate oligomer solid comprising a repeating unit represented by the following general formula : wherein R 1 and R 2 each independently represent a hydrogen atom or a methyl group, and having a weight average molecular weight of 500 to 10000, a low molecular weight component of 5.0 area% or less as measured by high performance liquid chromatography, and a loose bulk density of 0.20 g/cm 3 or more, wherein all parameters are determined according to the methods disclosed in the specification.
A method for transmitting, by a device supporting long-term evolution in unlicensed spectrum, LTE-U, a Wi-Fi signal in a wireless communication system, the method comprising: generating a first LTE signal via digital-to-analog converter, DAC; generating a second LTE signal, which emulates the Wi-Fi signal, via the DAC which is the same as the DAC used to generate the first LTE signal; transmitting the first LTE signal; and transmitting the second LTE signal, which emulates the Wi-Fi signal, wherein the first LTE signal and the second LTE signal, which emulates the Wi-Fi signal, are over-sampled to align sampling rate of the first LTE signal and the second LTE signal, which emulates the Wi-Fi signal. generating a first LTE signal via digital-to-analog converter, DAC; generating a second LTE signal, which emulates the Wi-Fi signal, via the DAC which is the same as the DAC used to generate the first LTE signal; transmitting the first LTE signal; and transmitting the second LTE signal, which emulates the Wi-Fi signal, wherein the first LTE signal and the second LTE signal, which emulates the Wi-Fi signal, are over-sampled to align sampling rate of the first LTE signal and the second LTE signal, which emulates the Wi-Fi signal.
Use of an adenylate kinase 6 (AK6) gene or protein thereof, or in combination with a GPX5 gene or protein for preparing a reagent or a kit for detecting male infertility.