mhurhangee/patent-ind-claim-en huggingface dataset:
A wet protein blotting system, wherein the wet protein system comprises: a. a dry assembly module; b. a protein blotting chamber; c. a liquid transfer buffer handling system; and d. a control panel and power supply wherein the dry assembly module comprises a gel holder structure capable of providing pressure, and wherein the dry assembly module further comprises: a. a first sponge; b. a pre-wetted membrane; c. a polyacrylamide gel; and d. a second sponge; wherein (a)-(d) are assembled in a sequential order in the gel holder. a. a dry assembly module; b. a protein blotting chamber; c. a liquid transfer buffer handling system; and d. a control panel and power supply wherein the dry assembly module comprises a gel holder structure capable of providing pressure, and wherein the dry assembly module further comprises: a. a first sponge; b. a pre-wetted membrane; c. a polyacrylamide gel; and d. a second sponge; wherein (a)-(d) are assembled in a sequential order in the gel holder. wherein the dry assembly module comprises a gel holder structure capable of providing pressure, and wherein the dry assembly module further comprises: a. a first sponge; b. a pre-wetted membrane; c. a polyacrylamide gel; and d. a second sponge; a. a first sponge; b. a pre-wetted membrane; c. a polyacrylamide gel; and d. a second sponge; wherein (a)-(d) are assembled in a sequential order in the gel holder.
A sound processor comprising: at least one physical computing component that is configured to direct a cochlear implant to apply a first pulse (704-1) by way of a first electrode (506-1) disposed on an electrode lead that is electrically coupled to the cochlear implant and is configured to be inserted into a cochlea of a patient; direct the cochlear implant to apply, concurrently with the application of the first pulse, a second pulse (704-2) by way of a second electrode (506-2) disposed on the electrode lead, the second pulse having a substantially equal magnitude and an opposite phase to the first pulse such that the application of the first and second pulses forms a dipole that generates a field; direct the cochlear implant to detect, by way of a third electrode disposed on the electrode lead, an energy magnitude of the field that reflects from cochlear tissue located within the field; and determine, based on a difference between the detected energy magnitude of the field and a baseline energy magnitude of the field, a proximity of the electrode lead to the cochlear tissue. direct a cochlear implant to apply a first pulse (704-1) by way of a first electrode (506-1) disposed on an electrode lead that is electrically coupled to the cochlear implant and is configured to be inserted into a cochlea of a patient; direct the cochlear implant to apply, concurrently with the application of the first pulse, a second pulse (704-2) by way of a second electrode (506-2) disposed on the electrode lead, the second pulse having a substantially equal magnitude and an opposite phase to the first pulse such that the application of the first and second pulses forms a dipole that generates a field; direct the cochlear implant to detect, by way of a third electrode disposed on the electrode lead, an energy magnitude of the field that reflects from cochlear tissue located within the field; and determine, based on a difference between the detected energy magnitude of the field and a baseline energy magnitude of the field, a proximity of the electrode lead to the cochlear tissue.
Apparatus for an aerosol generating device, comprising: an induction heating circuit , the circuit comprising: an inductive element for inductively heating a susceptor arrangement to heat an aerosol generating material to thereby generate an aerosol; a capacitive element ; and a switching arrangement that in use alternates between a first state and a second state to enable a varying current to be generated from a DC voltage supply and flow through the inductive element to cause inductive heating of the susceptor arrangement; and a control arrangement, wherein the control arrangement is configured to switch the switching arrangement from the first state to the second state in response to a first voltage condition being detected in the circuit; characterised in that the control arrangement is configured to switch the switching arrangement from the second state to the first state in response to a second voltage condition being detected in the circuit. an induction heating circuit , the circuit comprising: an inductive element for inductively heating a susceptor arrangement to heat an aerosol generating material to thereby generate an aerosol; a capacitive element ; and a switching arrangement that in use alternates between a first state and a second state to enable a varying current to be generated from a DC voltage supply and flow through the inductive element to cause inductive heating of the susceptor arrangement; and a control arrangement, wherein the control arrangement is configured to switch the switching arrangement from the first state to the second state in response to a first voltage condition being detected in the circuit; an inductive element for inductively heating a susceptor arrangement to heat an aerosol generating material to thereby generate an aerosol; a capacitive element ; and a switching arrangement that in use alternates between a first state and a second state to enable a varying current to be generated from a DC voltage supply and flow through the inductive element to cause inductive heating of the susceptor arrangement; and a control arrangement, wherein the control arrangement is configured to switch the switching arrangement from the first state to the second state in response to a first voltage condition being detected in the circuit; characterised in that the control arrangement is configured to switch the switching arrangement from the second state to the first state in response to a second voltage condition being detected in the circuit.
A safety lock mechanism for a portable weapon, comprising: a. an actuator (M3); b. a driver (M2); c. locking means (C1 - C28) operable from an unlocked state to a locked state, being actuated by said actuator driven by said driver for blocking a firing sequence of said portable weapon; d. a controller (M1) for controlling said driver (M2); characterized in that said actuator comprises: i. an electromagnet (5(f), 5a(f), 5b(f), 5c(f), 5d(f), 5e(f), 5f(f)); and, ii. a permanent magnet , wherein said permanent magnet is affixed to said locking means; wherein said controller causes said driver (M2) to drive the actuator by electrifying said electromagnet for 10 to 100 ms to actuate said locking means through said permanent magnet to block said firing sequence within 150 ms upon detecting a condition for locking said firing sequence. a. an actuator (M3); b. a driver (M2); c. locking means (C1 - C28) operable from an unlocked state to a locked state, being actuated by said actuator driven by said driver for blocking a firing sequence of said portable weapon; d. a controller (M1) for controlling said driver (M2); characterized in that said actuator comprises: i. an electromagnet (5(f), 5a(f), 5b(f), 5c(f), 5d(f), 5e(f), 5f(f)); and, ii. a permanent magnet , wherein said permanent magnet is affixed to said locking means; i. an electromagnet (5(f), 5a(f), 5b(f), 5c(f), 5d(f), 5e(f), 5f(f)); and, ii. a permanent magnet , wherein said permanent magnet is affixed to said locking means;
Filtering cartridge , particularly intended for filtering suction air in IC engines, of the kind comprising a sheet of filtering material pleated in an accordion-like manner in a pleating direction (P) so as to have a substantially parallelepiped shape comprising two opposite pleated faces , namely a first inlet face for the air to be filtered and a second outlet face for the filtered air, said pleated faces being delimited by a first pair of sides substantially perpendicular to said pleating direction (P) and by a second pair of sides substantially parallel to said pleating direction, wherein said filtering cartridge further comprises a peripheral gasket arranged along said first and second pairs of sides (3c-3f) and projecting therefrom, wherein along the sides of said first pair of sides said peripheral gasket extends in parallel to said pleated faces of said cartridge and along the sides of said second pair of sides said peripheral gasket is inclined with respect to said pleated faces of said cartridge at an angle (α) other than zero, wherein along the sides of said second pair of sides there are applied corresponding flat lateral walls , wherein said peripheral gasket in cross-section has a substantially flat face in the direction towards said second pleated outlet face and a convex profile in the direction towards said first pleated inlet face , characterized in that a plurality of through-holes is provided in said flat lateral walls along the path of the peripheral gasket and in that the material of the gasket penetrates through said through holes of said flat lateral walls up to the pleats of the filtering material and adhere there, in order to ensure a reliable connection between said gasket and the filtering cartridge.
An aerosol-generating system comprising: a device comprising a power supply and an electrical heater, the electrical heater connected to the power supply ; and a substrate cartridge containing an aerosol-forming substrate in the form of a thermoreversible gel that is solid at room temperature; wherein the substrate cartridge is configured to be inserted into or connected to the device prior to use and removed or disconnected from the device after use. a device comprising a power supply and an electrical heater, the electrical heater connected to the power supply ; and a substrate cartridge containing an aerosol-forming substrate in the form of a thermoreversible gel that is solid at room temperature; wherein the substrate cartridge is configured to be inserted into or connected to the device prior to use and removed or disconnected from the device after use.
A method of operating a tillage implement having at least one ground-engaging tilling assembly configured to work soil being traversed by the tillage implement, the method comprising: performing a first calibration of a tillage implement based on a curated library ; propelling the tillage implement through a field such that the at least one tilling assembly works the soil; capturing an image of the field with a camera carried by the tillage implement; comparing information from the captured image with the curated library ; identifying residue in the image based on the comparison of the information from the captured image with the curated library; modifying the curated library based on the captured image; and performing a second calibration of the tillage implement based on the modified library; characterized in that the curated library includes a correlation of previously observed data with material properties of soil and residue from other fields selected based on a similarity with the current field. performing a first calibration of a tillage implement based on a curated library ; propelling the tillage implement through a field such that the at least one tilling assembly works the soil; capturing an image of the field with a camera carried by the tillage implement; comparing information from the captured image with the curated library ; identifying residue in the image based on the comparison of the information from the captured image with the curated library; modifying the curated library based on the captured image; and performing a second calibration of the tillage implement based on the modified library; characterized in that the curated library includes a correlation of previously observed data with material properties of soil and residue from other fields selected based on a similarity with the current field.
Motor vehicle equipped with an electric motor, and a heat transfer fluid distributor comprising a body comprising an inlet and a cold loop outlet , an inlet and a cold loop outlet hot loop , and a three-way controlled valve providing in a first position a passage from the hot loop inlet to the hot loop outlet and the cold loop inlet towards the cold loop outlet , and in a second position a passage from the hot loop inlet to the cold loop outlet , and from the cold loop inlet towards the hot loop outlet , characterized in that the body comprises a non-return valve preventing the passage of the cold loop outlet towards the inlet of cold loop , and comprises a calibrated section passage from the cold loop inlet to the hot loop outlet , which has an inlet arranged lower than its outlet.
A dosage form article suitable for oral administration, comprising more than one compartment each formed by a plurality of distinct segments of the dosage form article, said dosage form article comprising a signaling means and a drug, wherein each compartment comprises a definite volume for storing a drug, or signaling means therein, formed and delimited by the plurality of distinct segments when connected to each other, wherein said signaling means and said drug are each stored in different compartments physically separated from one another, wherein both the drug and the signaling means are wholly incorporated within the dosage form article, the respective compartments being arranged to fully enclose the drug and signaling means only when at least two of the plurality of distinct segments are connected, and wherein each said distinct segment consists of a cap part or a body part and said cap and/or body parts are hard capsule shells.
A power generator comprising: a housing including a pair of side plates made of metal, a back plate made of metal, a top plate, a base plate and an opening, the housing accommodating a fuel cell configured to generate power through use of raw fuel and oxidant gas; and a lid disposed to cover the opening of the housing , wherein one of a first or a second panel is one of the side plates or the back plate and another one of the first and second panel is the other one of the side plates or the back plate ; wherein the first panel has a first end folded into an U-shape by means of hemming, the folded first end having an outer surface, and the second panel has a second end that is plate-shaped, the second end being bent forwardly into an L shape so that an outer surface of the second end touches the outer surface of the first end , and wherein the first end and the second end are fixed to each other with pressure applied by a fastening member in a closely fitting manner through use of springiness of the first end obtained by the hemming; wherein the fastening member includes a bolt and a frame , wherein the frame is fixed to the inner surface of the forwardly bent (L) shape second end, and the bolt passes through the first end , through the second end , reaching the frame . a housing including a pair of side plates made of metal, a back plate made of metal, a top plate, a base plate and an opening, the housing accommodating a fuel cell configured to generate power through use of raw fuel and oxidant gas; and a lid disposed to cover the opening of the housing , wherein one of a first or a second panel is one of the side plates or the back plate and another one of the first and second panel is the other one of the side plates or the back plate ; wherein the first panel has a first end folded into an U-shape by means of hemming, the folded first end having an outer surface, and the second panel has a second end that is plate-shaped, the second end being bent forwardly into an L shape so that an outer surface of the second end touches the outer surface of the first end , and wherein the first end and the second end are fixed to each other with pressure applied by a fastening member in a closely fitting manner through use of springiness of the first end obtained by the hemming; wherein the fastening member includes a bolt and a frame , wherein the frame is fixed to the inner surface of the forwardly bent (L) shape second end, and the bolt passes through the first end , through the second end , reaching the frame .
A viral vector comprising a therapeutic cargo portion, wherein the therapeutic cargo portion comprises a first small RNA sequence that is capable of binding to at least one pre-determined complementary mRNA sequence, wherein the at least one complementary mRNA sequence comprises a farnesyl diphosphate synthase (FDPS) mRNA sequence, and wherein the first small RNA sequence is capable of inhibiting expression of FDPS; and a second small RNA sequence that is capable of binding to a second pre-determined complementary mRNA sequence, wherein the second pre-determined complementary mRNA sequence comprises a CD47 mRNA sequence or a cMyc mRNA sequence, and wherein the second small RNA sequence is capable of inhibiting expression of CD47 or cMyc.
Method for setting a narrow-side conicity (K s ) of a continuous casting mould for the production of a metal strand with the aid of at least one closed-loop control circuit , the continuous casting mould comprising a first narrow-side plate and a second narrow-side plate , - wherein a plurality (N1) of positionally controlled actuators (A 1,i ), with i∈{1,...,N1}, for positioning the first narrow-side plate are arranged on the first narrow-side plate and a plurality (N2) of positionally controlled actuators (A 2,j ), with j∈{1,...,N2}, for positioning the second narrow-side plate are arranged on the second narrow-side plate , in each case at a different distance from the charging-side end of the continuous casting mould , and - wherein, during the operation of the continuous casting mould , corresponding forces (F 1,i , F 2,j ), with i∈{1,...,N1} and j∈{1,...,N2}, occur in the effective direction of each actuator (A 1,i , A 2,j ), characterized in that , the cycle through the at least one closed-loop control circuit uses - a reference pressure (P ref ) as a reference variable and - an average surface pressure (P med ) between the narrow side plates and the metal strand as a controlled variable, wherein the average surface pressure (P med ) is determined from the forces (F 1,i , F 2,j ), and in that - a controller determines the narrow-side conicity (K s ) as a manipulated variable of the closed-loop control circuit in dependence on a system deviation (P dif ) = (P ref ) - (P med ) as an input variable and in that - a controlled system is used to set the position of the first and/or the second narrow-side plate in a way corresponding to the narrow-side conicity (K s ) by means of the actuators (A 1,i , A 2,j ) . - wherein a plurality (N1) of positionally controlled actuators (A 1,i ), with i∈{1,...,N1}, for positioning the first narrow-side plate are arranged on the first narrow-side plate and a plurality (N2) of positionally controlled actuators (A 2,j ), with j∈{1,...,N2}, for positioning the second narrow-side plate are arranged on the second narrow-side plate , in each case at a different distance from the charging-side end of the continuous casting mould , and - wherein, during the operation of the continuous casting mould , corresponding forces (F 1,i , F 2,j ), with i∈{1,...,N1} and j∈{1,...,N2}, occur in the effective direction of each actuator (A 1,i , A 2,j ), - a reference pressure (P ref ) as a reference variable and - an average surface pressure (P med ) between the narrow side plates and the metal strand as a controlled variable, wherein the average surface pressure (P med ) is determined from the forces (F 1,i , F 2,j ), - a controller determines the narrow-side conicity (K s ) as a manipulated variable of the closed-loop control circuit in dependence on a system deviation (P dif ) = (P ref ) - (P med ) as an input variable and in that - a controlled system is used to set the position of the first and/or the second narrow-side plate in a way corresponding to the narrow-side conicity (K s ) by means of the actuators (A 1,i , A 2,j ) .
Method for producing a piezoelectric transformer , comprising the steps of: a) manufacturing a main body having an input region , in which electrodes and a first piezoelectric material are alternately stacked one on top of the other, and an output region which has a second piezoelectric material , b) polarizing the first piezoelectric material , c) fitting a removable contact to an output-side end side of the main body, which end side faces away from the input region , and applying a first electrical potential to the removable contact for polarizing the second piezoelectric material , wherein the removable contact has a flexible metal structure , wherein steps b) and c) are carried out in any desired order. a) manufacturing a main body having an input region , in which electrodes and a first piezoelectric material are alternately stacked one on top of the other, and an output region which has a second piezoelectric material , b) polarizing the first piezoelectric material , c) fitting a removable contact to an output-side end side of the main body, which end side faces away from the input region , and applying a first electrical potential to the removable contact for polarizing the second piezoelectric material , wherein the removable contact has a flexible metal structure ,
A heat generating device for an imaging section , comprising: a heating portion at which is provided a heating body that heats a light transmitting member that covers an obverse side of a lens of the imaging section ; a base portion that is fixed to a holding member that holds the imaging section , and at which a terminal that supplies electric power to the heating body is provided; and a connecting portion that connects the heating portion and the base portion , and that is foldable, characterized in that a metal layer is provided at a surface of the light transmitting member , the heating portion is affixed to the metal layer , and the heat generating device is a sheet-shaped member that is flexible. a heating portion at which is provided a heating body that heats a light transmitting member that covers an obverse side of a lens of the imaging section ; a base portion that is fixed to a holding member that holds the imaging section , and at which a terminal that supplies electric power to the heating body is provided; and a connecting portion that connects the heating portion and the base portion , and that is foldable, characterized in that a metal layer is provided at a surface of the light transmitting member , the heating portion is affixed to the metal layer , and the heat generating device is a sheet-shaped member that is flexible.
A semiconductor package, comprising: an interposer ; a plurality of integrated circuit (IC) dice disposed on and intercoupled via the interposer, a first IC die of the plurality of IC dice having a clock speed rating that is greater than a clock speed rating of another of the IC dice; and a plurality of programmable voltage tuners coupled to the plurality of IC dice, respectively, wherein: a first voltage tuner of the plurality of voltage tuners is coupled to the first IC die; the first voltage tuner is programmed to reduce a voltage level of a voltage input to the first voltage tuner and output the reduced voltage to the first IC die; and the voltage tuners are disposed in the interposer. an interposer ; a plurality of integrated circuit (IC) dice disposed on and intercoupled via the interposer, a first IC die of the plurality of IC dice having a clock speed rating that is greater than a clock speed rating of another of the IC dice; and a plurality of programmable voltage tuners coupled to the plurality of IC dice, respectively, wherein: a first voltage tuner of the plurality of voltage tuners is coupled to the first IC die; the first voltage tuner is programmed to reduce a voltage level of a voltage input to the first voltage tuner and output the reduced voltage to the first IC die; and the voltage tuners are disposed in the interposer. a first voltage tuner of the plurality of voltage tuners is coupled to the first IC die; the first voltage tuner is programmed to reduce a voltage level of a voltage input to the first voltage tuner and output the reduced voltage to the first IC die; and the voltage tuners are disposed in the interposer.