mhurhangee/ep-ind-claims huggingface dataset:
A solid dual agent composition comprising: a) a solid hypohalite; b) a solid nitrogen source, which is a solid ammonium salt having at least one N-H functionality capable of reacting with a hypohalite; and c) a component which is either: i) a solid pH control material that optionally has at least one secondary function as a diluent which is inert toward the reactive components of the solid dual agent composition, stabilizer, anti-caking agent, binder or desiccant; or ii) a combination of a solid pH control material and a diluent which is inert toward the reactive components of the solid dual agent composition, stabilizer, anti-caking agent, binder, desiccant, or combination thereof; wherein said dual agent composition forms a biocidal mixture when combined with water. a) a solid hypohalite; b) a solid nitrogen source, which is a solid ammonium salt having at least one N-H functionality capable of reacting with a hypohalite; and c) a component which is either: i) a solid pH control material that optionally has at least one secondary function as a diluent which is inert toward the reactive components of the solid dual agent composition, stabilizer, anti-caking agent, binder or desiccant; or ii) a combination of a solid pH control material and a diluent which is inert toward the reactive components of the solid dual agent composition, stabilizer, anti-caking agent, binder, desiccant, or combination thereof; wherein said dual agent composition forms a biocidal mixture when combined with water. i) a solid pH control material that optionally has at least one secondary function as a diluent which is inert toward the reactive components of the solid dual agent composition, stabilizer, anti-caking agent, binder or desiccant; or ii) a combination of a solid pH control material and a diluent which is inert toward the reactive components of the solid dual agent composition, stabilizer, anti-caking agent, binder, desiccant, or combination thereof; wherein said dual agent composition forms a biocidal mixture when combined with water.
A piston for use in a dispensing cartridge, wherein the cartridge comprises a cylindrical housing and the piston is a component which can be slidably received in the cartridge and can form a seal with an inner wall of the cartridge; the piston comprising: a body having a generally cylindrical configuration with a sidewall arranged in a generally axial direction, a sealing lip extending outwardly from the sidewall and in a generally axially direction, wherein a flange portion of the sealing lip projects radially outward from the sidewall, first and second portions (22, 24) of the sealing lip extending axially and slightly radially outward from the flange portion, with the second portion defining a terminal end of the sealing lip, wherein the first and second portions (22, 24) define respective first and second sections (28, 30) of an outer surface of the sealing lip, the first and second portions (22, 24) defining a peripheral wall of the piston that surrounds and encircles the sidewall of the body, said piston being characterized in that the sealing lip further includes a sealing bead positioned between the first and second portions (22, 24) at their junction, wherein both an outer edge of the terminal end and the sealing bead are configured to be able to bear against the inner wall of a cartridge to form a seal, and wherein a rounded juncture is defined at the intersection between the sealing bead and the first section. a body having a generally cylindrical configuration with a sidewall arranged in a generally axial direction, a sealing lip extending outwardly from the sidewall and in a generally axially direction, wherein a flange portion of the sealing lip projects radially outward from the sidewall, first and second portions (22, 24) of the sealing lip extending axially and slightly radially outward from the flange portion, with the second portion defining a terminal end of the sealing lip, wherein the first and second portions (22, 24) define respective first and second sections (28, 30) of an outer surface of the sealing lip, the first and second portions (22, 24) defining a peripheral wall of the piston that surrounds and encircles the sidewall of the body, said piston being characterized in that the sealing lip further includes a sealing bead positioned between the first and second portions (22, 24) at their junction, wherein both an outer edge of the terminal end and the sealing bead are configured to be able to bear against the inner wall of a cartridge to form a seal, and wherein a rounded juncture is defined at the intersection between the sealing bead and the first section.
A method for wireless communication, comprising: identifying that an incremental redundancy hybrid automatic repeat request, IR-HARQ, scheme is used in association with sequential transmissions of an information bit vector from a wireless device, wherein each transmission in the IR-HARQ scheme is associated with a transmission resource size; identifying a mother code length for a polar code used in association with the IR-HARQ scheme based at least in part on an aggregate transmission resource size associated with the sequential transmissions; identifying a bit index set for the polar code based at least in part on identifying that the IR-HARQ scheme is used; and receiving, for each transmission of the information bit vector, a respective subset of encoded bits generated by mapping the information bit vector to a set of polarized bit channels of the polar code in accordance with the bit index set. identifying that an incremental redundancy hybrid automatic repeat request, IR-HARQ, scheme is used in association with sequential transmissions of an information bit vector from a wireless device, wherein each transmission in the IR-HARQ scheme is associated with a transmission resource size; identifying a mother code length for a polar code used in association with the IR-HARQ scheme based at least in part on an aggregate transmission resource size associated with the sequential transmissions; identifying a bit index set for the polar code based at least in part on identifying that the IR-HARQ scheme is used; and receiving, for each transmission of the information bit vector, a respective subset of encoded bits generated by mapping the information bit vector to a set of polarized bit channels of the polar code in accordance with the bit index set.
Method of high spatial resolution imaging a structure of a sample, the structure comprising a luminophore, - wherein the sample, in a measurement area, is subjected to luminescence excitation light which excites the luminophore out of an excitable electronic ground state into an excited luminescent state; - wherein the sample, in the measurement area, is subjected to an intensity distribution of luminescence de-excitation light comprising a local minimum, which returns the luminophore out of the excited luminescent state into the excitable electronic ground state; - wherein luminescence light emitted out of the measurement area is registered; and - wherein the registered luminescence light is assigned to the position of the local minimum within the sample; characterized in that the sample, in the measurement area, prior to being subjected to the luminescence excitation light, is subjected to an intensity distribution of excitation inhibiting light which transfers the luminophore out of the excitable electronic ground state into a protection state in which the luminophore is protected against electronic excitation by the luminescence excitation light and by the luminescence de-excitation light, wherein the intensity distribution of the excitation inhibiting light comprises a local minimum which overlaps with the local minimum of the intensity distribution of the luminescence de-excitation light. - wherein the sample, in a measurement area, is subjected to luminescence excitation light which excites the luminophore out of an excitable electronic ground state into an excited luminescent state; - wherein the sample, in the measurement area, is subjected to an intensity distribution of luminescence de-excitation light comprising a local minimum, which returns the luminophore out of the excited luminescent state into the excitable electronic ground state; - wherein luminescence light emitted out of the measurement area is registered; and - wherein the registered luminescence light is assigned to the position of the local minimum within the sample;
User equipment, comprising: an acquiring unit, configured to acquire a phone number of a current call to first user equipment; a determining unit, configured to determine whether the phone number of the current call is a trigger number, wherein when the phone number of the current call is the trigger number, the determining unit is further configured to determine whether a ring parameter corresponding to the number of the call meets a preset condition, wherein the ring parameter comprises a quantity of rings and/or duration of a ring; and a sending unit, configured to: if the ring parameter corresponding to the number of the call meets the preset condition, send a call transfer instruction to a server, wherein the call transfer instruction is used to instruct the server to transfer, after receiving the call transfer instruction, the call to the first user equipment to a second user equipment corresponding to the number of the call; characterized in, that the determining unit is further configured to determine that the first user equipment is not connected to a wearable device, before sending a call transfer instruction to a server. an acquiring unit, configured to acquire a phone number of a current call to first user equipment; a determining unit, configured to determine whether the phone number of the current call is a trigger number, wherein when the phone number of the current call is the trigger number, the determining unit is further configured to determine whether a ring parameter corresponding to the number of the call meets a preset condition, wherein the ring parameter comprises a quantity of rings and/or duration of a ring; and a sending unit, configured to: if the ring parameter corresponding to the number of the call meets the preset condition, send a call transfer instruction to a server, wherein the call transfer instruction is used to instruct the server to transfer, after receiving the call transfer instruction, the call to the first user equipment to a second user equipment corresponding to the number of the call; characterized in, that the determining unit is further configured to determine that the first user equipment is not connected to a wearable device, before sending a call transfer instruction to a server.
A closed-loop impedance feedback power control system, the system comprising: an energy delivery apparatus having a plurality of electrodes configured to deliver energy to respective treatment sites; an energy supply apparatus that powers the energy delivery apparatus; and an energy supply controller that is configured to control the power from the energy supply apparatus to the energy delivery apparatus and to perform closed-loop control of the energy delivery based on the measurement of impedance values of targeted tissue sites, wherein the controller is configured to adjust the power based on the impedance measurements to maintain a set impedance, and thus the temperature, in a desired non-ablative range, characterized in that the system is configured to determine the set impedance that correlates to a desired treatment temperature or temperature range, and wherein the controller determines the set impedance as function of an initial impedance and the size and variable spacing of the electrodes. an energy delivery apparatus having a plurality of electrodes configured to deliver energy to respective treatment sites; an energy supply apparatus that powers the energy delivery apparatus; and an energy supply controller that is configured to control the power from the energy supply apparatus to the energy delivery apparatus and to perform closed-loop control of the energy delivery based on the measurement of impedance values of targeted tissue sites, wherein the controller is configured to adjust the power based on the impedance measurements to maintain a set impedance, and thus the temperature, in a desired non-ablative range, characterized in that the system is configured to determine the set impedance that correlates to a desired treatment temperature or temperature range, and wherein the controller determines the set impedance as function of an initial impedance and the size and variable spacing of the electrodes.
A label manufacturing method, comprising the following steps: a cladding material manufacturing step, comprising: manufacturing an adhesive strip, a release film including a base material and a surface material, and a transparent film having a viscous side into a cladding material, wherein a first area of the cladding material comprises the base material of the release film, the transparent film, and the surface material of the release film which are sequentially laminated, wherein the transparent film is positioned in between the base material and the surface material of the release film and wherein the base material is peelable off the transparent film and a second area of the cladding material comprises the adhesive strip and the surface material of the release film which are sequentially laminated, and the first area and the second area are two areas of the cladding material which are side by side; and, a label die cutting step, comprising: die cutting the transparent film and the base material of the release film at the first area of the cladding material into a first label unit, and die cutting the adhesive strip at the second area of the cladding material into a second label unit, wherein the first label unit and the second label unit are symmetrically distributed along a reference line on the surface material of the release film. a cladding material manufacturing step, comprising: manufacturing an adhesive strip, a release film including a base material and a surface material, and a transparent film having a viscous side into a cladding material, wherein a first area of the cladding material comprises the base material of the release film, the transparent film, and the surface material of the release film which are sequentially laminated, wherein the transparent film is positioned in between the base material and the surface material of the release film and wherein the base material is peelable off the transparent film and a second area of the cladding material comprises the adhesive strip and the surface material of the release film which are sequentially laminated, and the first area and the second area are two areas of the cladding material which are side by side; and, a label die cutting step, comprising: die cutting the transparent film and the base material of the release film at the first area of the cladding material into a first label unit, and die cutting the adhesive strip at the second area of the cladding material into a second label unit, wherein the first label unit and the second label unit are symmetrically distributed along a reference line on the surface material of the release film.
A rotor for an X-ray tube, comprising: - a rotational structure with a plurality of electrically conducting elements, the ends thereof connected to each other and provided such that an external stator magnetic field generated by a stator induces a current in the electrically conducting elements, which current generates a rotor magnetic field to interact with the stator magnetic field; wherein at least the plurality of electrically conducting elements is made from carbon composite based material; and characterized in that the rotational structure is provided as a cylindrical collar on an anode disc on a side opposite a side where a focal track is provided. - a rotational structure with a plurality of electrically conducting elements, the ends thereof connected to each other and provided such that an external stator magnetic field generated by a stator induces a current in the electrically conducting elements, which current generates a rotor magnetic field to interact with the stator magnetic field;
A transmission and clutch device of an electric chassis, for implementing advancement and withdrawal of a breaker electrically and manually, wherein the transmission and clutch device comprises a transmission shaft, a first drive shaft, a first compression spring, a first gear, a second compression spring and a second drive shaft successively along an axial direction, the first drive shaft and the second drive shaft are fixed together, the transmission shaft is provided for connecting to a motor, and the first gear is fixed onto a base in a rotatable manner, wherein the first drive shaft is connected with the transmission shaft in a relatively sliding manner and rotatable synchronously with the drive shaft; and two end faces of the first gear are both formed with a keyway for separably cooperating with a protrusion of an end face of the first drive shaft or a protrusion of an end face of the second drive shaft, wherein a lead screw is electrically driven to rotate during cooperating, and the lead screw is driven manually to rotate during separation; and wherein the transmission and clutch device further comprises a drive pin, wherein the first drive shaft is partly arranged outside the transmission shaft, the first drive shaft is provided with an oblique opening, and the drive pin is mounted on the transmission shaft by passing through the oblique opening of the first drive shaft from inside of a circumference.
A method of measuring the morphological profile of a sample of red blood cells (RBCs) comprising the steps of: (a) measuring the greatest projected area of each RBC in a population of said RBCs, wherein the greatest projected area of each RBC is measured by: (i) allowing said RBCs to sediment onto a surface; and (ii) measuring the projected surface area of each RBC in a direction substantially normal to the plane of said surface; (b) creating a projected area distribution of the RBCs from said measurements; and (c) identifying characteristic peaks from said projected area distribution; each characteristic peak having an associated population density and corresponding with a projected area, the population densities of the characteristic peaks indicating the proportion of phenotypic cell types within the RBC sample. (a) measuring the greatest projected area of each RBC in a population of said RBCs, wherein the greatest projected area of each RBC is measured by: (i) allowing said RBCs to sediment onto a surface; and (ii) measuring the projected surface area of each RBC in a direction substantially normal to the plane of said surface; (i) allowing said RBCs to sediment onto a surface; and (ii) measuring the projected surface area of each RBC in a direction substantially normal to the plane of said surface; (b) creating a projected area distribution of the RBCs from said measurements; and (c) identifying characteristic peaks from said projected area distribution;
A bioplastic composition comprising biomass as a component comprising a. a plastic compound resin comprising i. 50-85 wt% of polybutylene succinate based on the total plastic compound resin weight ii. 10-50 wt% of polylactic acid based on the total plastic compound resin weight b. an additive selected from or comprising i. 1-80 parts per hundred plastic compound resin (phr) of biomass from coffee roasting process which is silver skin of coffee, and/or ii. 0.1-5 parts per hundred plastic compound resin (phr) of at least one fluoropolymer or fluoropolymer derivative as a friction reducing agent. a. a plastic compound resin comprising i. 50-85 wt% of polybutylene succinate based on the total plastic compound resin weight ii. 10-50 wt% of polylactic acid based on the total plastic compound resin weight i. 50-85 wt% of polybutylene succinate based on the total plastic compound resin weight ii. 10-50 wt% of polylactic acid based on the total plastic compound resin weight b. an additive selected from or comprising i. 1-80 parts per hundred plastic compound resin (phr) of biomass from coffee roasting process which is silver skin of coffee, and/or ii. 0.1-5 parts per hundred plastic compound resin (phr) of at least one fluoropolymer or fluoropolymer derivative as a friction reducing agent. i. 1-80 parts per hundred plastic compound resin (phr) of biomass from coffee roasting process which is silver skin of coffee, and/or ii. 0.1-5 parts per hundred plastic compound resin (phr) of at least one fluoropolymer or fluoropolymer derivative as a friction reducing agent.
An ultrasonic probe comprising:: an ultrasonic transducer array configured to transmit and receive ultrasonic waves; a conducting device disposed at a front end of the ultrasonic transducer array, wherein the conducting device comprises a fluid chamber (130, 130') filled with fluid (133, 133'), and the fluid chamber (130, 130') has an opening (131, 131') and an energy receiving port (132, 132') which are in communication with each other, and the opening (131, 131') is disposed on a front surface of the conducting device and covered by an elastic film; and an energy applying device, connected to the energy receiving port (132, 132') and configured to apply energy to the fluid (133, 133') within the fluid chamber (130, 130'), wherein the energy receiving port is configured to receive the energy, the energy received by the energy receiving port reaches the elastic film after being transferred via the fluid in the fluid chamber, and causes the elastic film to vibrate and generate a shear wave, and the ultrasonic waves are utilized to trace the propagation of the shear wave inside the tissue, so as to perform instantaneous elastography and acquire elasticity information and/or attenuation information of the tissue. an ultrasonic transducer array configured to transmit and receive ultrasonic waves; a conducting device disposed at a front end of the ultrasonic transducer array, wherein the conducting device comprises a fluid chamber (130, 130') filled with fluid (133, 133'), and the fluid chamber (130, 130') has an opening (131, 131') and an energy receiving port (132, 132') which are in communication with each other, and the opening (131, 131') is disposed on a front surface of the conducting device and covered by an elastic film; and an energy applying device, connected to the energy receiving port (132, 132') and configured to apply energy to the fluid (133, 133') within the fluid chamber (130, 130'), wherein the energy receiving port is configured to receive the energy, the energy received by the energy receiving port reaches the elastic film after being transferred via the fluid in the fluid chamber, and causes the elastic film to vibrate and generate a shear wave, and the ultrasonic waves are utilized to trace the propagation of the shear wave inside the tissue, so as to perform instantaneous elastography and acquire elasticity information and/or attenuation information of the tissue.