mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising: a human pancreatic stromal progenitor cell (PSP) suspension comprising from about 1 × 10 1 PSPs/mL to about 1 × 10 10 PSPs/mL, and a carrier, wherein the amount of PSPs in the composition is effective for treatment of a human that has a disease that affects how the human body uses blood sugar, the human PSPs are isolated from a pancreatic tissue of a human, the PSPs express high levels of IL6 (IL6 high ) as compared to the IL6 expression of bone marrow mesenchymal stem cells (BMSCs) of the human, and the PSPs are positive for Sca1, CD105, Vimentin, CD44, and CD29. a human pancreatic stromal progenitor cell (PSP) suspension comprising from about 1 × 10 1 PSPs/mL to about 1 × 10 10 PSPs/mL, and a carrier, wherein the amount of PSPs in the composition is effective for treatment of a human that has a disease that affects how the human body uses blood sugar, the human PSPs are isolated from a pancreatic tissue of a human, the PSPs express high levels of IL6 (IL6 high ) as compared to the IL6 expression of bone marrow mesenchymal stem cells (BMSCs) of the human, and the PSPs are positive for Sca1, CD105, Vimentin, CD44, and CD29.
A device provided for coupling optical signals into at least one waveguide , comprising at least one electro-optical converter emitting the optical signals in the direction of the axis or of the core of the waveguide , - wherein the electro-optical converter is accommodated, in particular embedded, in at least one send-site optical subassembly , - wherein an electrical contact for the electro-optical converter is provided on a side surface of the outer surface of the send-site optical subassembly , said side surface offset by about ninety degrees relative to connection contacts of the electro-optical converter , and - wherein the send-site optical subassembly comprises at least one guide channel for aligning the waveguide with respect to the electro-optical converter , in particular with respect to the outlet opening or active area of the electro-optical converter , characterized in that the guide channel is embodied to taper towards the electro-optical converter in a stepped or multi-step manner, the inner diameter of the guide channel decreasing in the direction of the electro-optical converter . - wherein the electro-optical converter is accommodated, in particular embedded, in at least one send-site optical subassembly , - wherein an electrical contact for the electro-optical converter is provided on a side surface of the outer surface of the send-site optical subassembly , said side surface offset by about ninety degrees relative to connection contacts of the electro-optical converter , and - wherein the send-site optical subassembly comprises at least one guide channel for aligning the waveguide with respect to the electro-optical converter , in particular with respect to the outlet opening or active area of the electro-optical converter ,
Magneto-optical sensor for sensing a current flowing through a conductor, comprising: - a light source configured to provide a linearly-polarized optical beam, - a polarization analyser configured to perform a differential measurement of two polarization components of the linearly-polarized optical beam having travelled along an optical path (OP) arranged between the light source and the polarization analyser, said optical path forming a closed trajectory around the conductor, wherein the magneto-optical sensor further comprises a cell (3, C1-C4) containing an atomic gas arranged along the optical path, the optical beam provided by the light source , being shifted in wavelength from a center of an atomic transition line of the atomic gas. - a light source configured to provide a linearly-polarized optical beam, - a polarization analyser configured to perform a differential measurement of two polarization components of the linearly-polarized optical beam having travelled along an optical path (OP) arranged between the light source and the polarization analyser, said optical path forming a closed trajectory around the conductor,
A multi-pulse propulsion system comprising: at least one pulse chamber containing at least one propellant for igniting during at least one pulse of the multi-pulse propulsion system; a first igniter configured to initiate the at least one pulse by igniting the at least one propellant contained in the at least one pulse chamber, the first igniter being controlled by a main system controller ; at least one additional pulse chamber containing at least one additional propellant for igniting during at least one additional pulse of the multi-pulse propulsion system, wherein the at least one additional pulse is subsequent to and separate from the at least one pulse, wherein the at least one additional propellant is not ignited until the at least one additional pulse; and at least one passive fuzing system configured to initiate the at least one additional pulse, the at least one passive fuzing system comprising a sensor and a second igniter , the sensor being configured to sense an environmental condition and/or a ballistic condition, and the second igniter being configured to provide a stimulus that causes ignition of the at least one additional propellant in response to the sensor sensing that the environmental condition and/or the ballistic condition has reached or exceeded one or more threshold values, wherein the passive fuzing system is operable independent of a connection to the main system controller. at least one pulse chamber containing at least one propellant for igniting during at least one pulse of the multi-pulse propulsion system; a first igniter configured to initiate the at least one pulse by igniting the at least one propellant contained in the at least one pulse chamber, the first igniter being controlled by a main system controller ; at least one additional pulse chamber containing at least one additional propellant for igniting during at least one additional pulse of the multi-pulse propulsion system, wherein the at least one additional pulse is subsequent to and separate from the at least one pulse, wherein the at least one additional propellant is not ignited until the at least one additional pulse; and at least one passive fuzing system configured to initiate the at least one additional pulse, the at least one passive fuzing system comprising a sensor and a second igniter , the sensor being configured to sense an environmental condition and/or a ballistic condition, and the second igniter being configured to provide a stimulus that causes ignition of the at least one additional propellant in response to the sensor sensing that the environmental condition and/or the ballistic condition has reached or exceeded one or more threshold values, wherein the passive fuzing system is operable independent of a connection to the main system controller.
A method of an electronic device, comprising: displaying , by the electronic device, a first frame captured by a first camera with a first field of view, FOV; detecting , by the electronic device, a first event, wherein the first event causes the electronic device to transition from displaying the first frame to displaying a second frame captured by a second camera with a second FOV; based on the detecting the first event: generating , by the electronic device, a first number of intermediate frames, and displaying , by the electronic device, the second frame, wherein the first number of intermediate frames are displayed after the displaying of the first frame and before the displaying of the second frame, wherein a second number of intermediate frames are generated upon detecting a second event, the second event causing the electronic device to transition from displaying a third frame captured by the second camera to displaying a fourth frame captured by the first camera, and wherein the first number is different from the second number. displaying , by the electronic device, a first frame captured by a first camera with a first field of view, FOV; detecting , by the electronic device, a first event, wherein the first event causes the electronic device to transition from displaying the first frame to displaying a second frame captured by a second camera with a second FOV; based on the detecting the first event: generating , by the electronic device, a first number of intermediate frames, and displaying , by the electronic device, the second frame, wherein the first number of intermediate frames are displayed after the displaying of the first frame and before the displaying of the second frame, wherein a second number of intermediate frames are generated upon detecting a second event, the second event causing the electronic device to transition from displaying a third frame captured by the second camera to displaying a fourth frame captured by the first camera, and wherein the first number is different from the second number. generating , by the electronic device, a first number of intermediate frames, and displaying , by the electronic device, the second frame, wherein the first number of intermediate frames are displayed after the displaying of the first frame and before the displaying of the second frame, wherein a second number of intermediate frames are generated upon detecting a second event, the second event causing the electronic device to transition from displaying a third frame captured by the second camera to displaying a fourth frame captured by the first camera, and wherein the first number is different from the second number.
A method for recovering a valuable material from a lithium ion secondary battery, the method comprising: a heat treatment step of performing heat treatment on a lithium ion secondary battery; subsequent to the heat treatment step, a crushing step of crushing a heat-treated object obtained through the heat treatment step; subsequent to the crushing step, a first stage of classification step of classifying a crushed object obtained through the crushing step based on a classification point of 1.2 mm or more and 2.4 mm or less, and a second stage of classification step of classifying an intermediate product and a fine particle product obtained on a fine side in the first stage of classification step based on a classification point of 0.3 mm or less; subsequent to the second stage of classification step, a first stage of dry magnetic separation step of performing dry magnetic separation on an intermediate product obtained on a coarse side in the second stage of classification step, and a second stage of dry magnetic separation step of performing dry magnetic separation again on a magnetically attracted matter obtained in the first stage of dry magnetic separation step or a magnetically attracted matter obtained in the second stage of dry magnetic separation step itself, wherein valuable material includes cobalt and/or nickel, and wherein heat treatment on the lithium ion secondary battery in the heat treatment step is performed at 670 °C or more and 1100 °C or less. a heat treatment step of performing heat treatment on a lithium ion secondary battery; subsequent to the heat treatment step, a crushing step of crushing a heat-treated object obtained through the heat treatment step; subsequent to the crushing step, a first stage of classification step of classifying a crushed object obtained through the crushing step based on a classification point of 1.2 mm or more and 2.4 mm or less, and a second stage of classification step of classifying an intermediate product and a fine particle product obtained on a fine side in the first stage of classification step based on a classification point of 0.3 mm or less; subsequent to the second stage of classification step, a first stage of dry magnetic separation step of performing dry magnetic separation on an intermediate product obtained on a coarse side in the second stage of classification step, and a second stage of dry magnetic separation step of performing dry magnetic separation again on a magnetically attracted matter obtained in the first stage of dry magnetic separation step or a magnetically attracted matter obtained in the second stage of dry magnetic separation step itself, wherein valuable material includes cobalt and/or nickel, and wherein heat treatment on the lithium ion secondary battery in the heat treatment step is performed at 670 °C or more and 1100 °C or less.
A method for automated image inspection, comprising the steps of: a) generating a video signal ; b) providing a source light which outputs emitted light; c) providing a digital light mask which attenuates the emitted light; d) directing the attenuated light towards an article ; and e) inspecting the article with a vision system , characterized in that the video signal determines a digital light mask compensation. a) generating a video signal ; b) providing a source light which outputs emitted light; c) providing a digital light mask which attenuates the emitted light; d) directing the attenuated light towards an article ; and e) inspecting the article with a vision system ,
A device for treating sleep disordered breathing, comprising: a stimulation element configured to control nerve stimulation to treat obstructive sleep apnea, wherein the stimulation element is configured to stimulate an airway-patency-related nerve to treat upper airway obstructions, according to a first stimulation protocol not synchronized relative to sensed respiratory information and in which each stimulation cycle includes a stimulation period (212A-212J) and a non-stimulation period (218A-281I).
A method by a wireless device comprises: receiving , from a network node , one or more bandwidth pieces, wherein data scheduled in one of the one or more bandwidth pieces comprises at least one complete transport block without transport block splitting and control information corresponding to the at least one complete transport block; and transmitting the data based on the scheduling or control information. receiving , from a network node , one or more bandwidth pieces, wherein data scheduled in one of the one or more bandwidth pieces comprises at least one complete transport block without transport block splitting and control information corresponding to the at least one complete transport block; and transmitting the data based on the scheduling or control information.
A hearing assistance device comprising: a housing adapted to be worn behind a user's ear, the housing having superior and inferior ends and opposite lateral sides, one facing the user's head and the other facing the pinna of the user's ear when worn by the user; a wireless transceiver disposed within the housing ; an antenna connected at a feedpoint to the wireless transceiver; wherein the antenna has a crossing section that traverses laterally from one side of the housing to the other, and an angled portion that angles the antenna from the crossing section towards the bottom of the device on one of the lateral sides, a vertical section that traverses vertically within the housing from the crossing section toward the superior end of the housing on the other of the lateral sides, and a bottom flat section terminating the angled portion and curving to run along the bottom of the device. a housing adapted to be worn behind a user's ear, the housing having superior and inferior ends and opposite lateral sides, one facing the user's head and the other facing the pinna of the user's ear when worn by the user; a wireless transceiver disposed within the housing ; an antenna connected at a feedpoint to the wireless transceiver; wherein the antenna has a crossing section that traverses laterally from one side of the housing to the other, and an angled portion that angles the antenna from the crossing section towards the bottom of the device on one of the lateral sides, a vertical section that traverses vertically within the housing from the crossing section toward the superior end of the housing on the other of the lateral sides, and a bottom flat section terminating the angled portion and curving to run along the bottom of the device.
Reinforcing sleeve for use in a cutting ring screw connection for a thin-walled tube comprising a connection body with a chuck cone, a cutting ring and a cap nut, which can be screwed onto the connection body, with a sleeve body, which is provided at the end with an at least partially circumferential collar and which is separated over its entire length by an axial slot , wherein the sleeve body is elastic in such a manner that the edges of the axial slot can be reversibly pressed together and wherein the width b slot of the axial slot is calculated as b slot = D sleeve · 3 % · π, with D sleeve = outer diameter of the reinforcing sleeve.
A sound output and pickup device comprising: a housing that comprises a top cover and a bottom cover overlapping the top cover in a vertical direction; a speaker that is built in a speaker housing space in the housing and includes a sound output face that is open to an outside of the housing ; and a microphone including a sound pickup face, wherein the microphone is built in the housing in a microphone housing space having a side opened to the outside of the microphone housing space as an opening of a side face of the housing , wherein the sound pickup face faces said opening; the sound output and pickup device further comprises a partition in the housing separating the speaker housing space and the microphone housing space from each other; characterized in that a through hole is provided in the partition, the through hole (HL23) being arranged at a position at which a distance (L(EX)) from the through hole (HL23) to the outside of the housing is shorter than a distance (L(MIC)) from the through hole (HL23) to the microphone . a housing that comprises a top cover and a bottom cover overlapping the top cover in a vertical direction; a top cover and a bottom cover overlapping the top cover in a vertical direction; a speaker that is built in a speaker housing space in the housing and includes a sound output face that is open to an outside of the housing ; and a microphone including a sound pickup face, wherein the microphone is built in the housing in a microphone housing space having a side opened to the outside of the microphone housing space as an opening of a side face of the housing , wherein the sound pickup face faces said opening; the sound output and pickup device further comprises a partition in the housing separating the speaker housing space and the microphone housing space from each other; characterized in that a through hole is provided in the partition, the through hole (HL23) being arranged at a position at which a distance (L(EX)) from the through hole (HL23) to the outside of the housing is shorter than a distance (L(MIC)) from the through hole (HL23) to the microphone .
Steel strip having an ultimate tensile strength Rm in the 600MPa steel category consisting of, in mass percent, the following elements: C 0.08-0.11 %; Mn 1.70-2.20%; Si at most 0.1 %; Cr 0.40-0.70%; Mo at most 0.3%; Ni at most 1.0%, Al 0.01-1.50%; Nb at most 0.005%; P optionally more than 0.005% and at most 0.05%; N equal to or less than 0.015%; Ti equal to or less than 0.1%; V equal to or less than 0.1%; B equal to or less than 0.01% wherein the sum of Cr, Mo and Ni is at least 0.5%; the balance being Fe and inevitable impurities; and having a microstructure consisting of: martensite 2-50%; ferrite 50-98%; and pearlite 0% or less than 3%. martensite 2-50%; ferrite 50-98%; and pearlite 0% or less than 3%.
Illumination apparatus for an optical observation device, having - a light source , comprising a first individual light source and a second individual light source , which are arranged in a light source plane, wherein the first individual light source has a first midpoint M1 and the second individual light source has a second midpoint M2 and wherein a first axis direction A1 is defined by a vector from the second midpoint M2 to the first midpoint M1; - an illumination optical unit , through which an optical axis Z is defined that is arranged perpendicular to the light source plane and intersects the light source plane at an intersection point , wherein the light source is imaged to infinity by the illumination optical unit, - wherein the first individual light source has a first extent L1 along the first axis direction A1, wherein the midpoint M1 is offset by an absolute value Δ in a positive direction along the axis direction A1 with respect to the intersection point of the optical axis Z with the light source plane, wherein the following relationship is satisfied for the offset: 0.2 * L 1 ≤ Δ ≤ 0 .5 * L 1 . - a light source , comprising a first individual light source and a second individual light source , which are arranged in a light source plane, wherein the first individual light source has a first midpoint M1 and the second individual light source has a second midpoint M2 and wherein a first axis direction A1 is defined by a vector from the second midpoint M2 to the first midpoint M1; - an illumination optical unit , through which an optical axis Z is defined that is arranged perpendicular to the light source plane and intersects the light source plane at an intersection point , wherein the light source is imaged to infinity by the illumination optical unit, - wherein the first individual light source has a first extent L1 along the first axis direction A1, wherein the midpoint M1 is offset by an absolute value Δ in a positive direction along the axis direction A1 with respect to the intersection point of the optical axis Z with the light source plane, wherein the following relationship is satisfied for the offset: 0.2 * L 1 ≤ Δ ≤ 0 .5 * L 1 .
A method of manufacturing a negative electrode for a lithium secondary battery, the method comprising: preparing a working electrode including a metal thin film; preparing a composition for forming a first solid electrolyte layer including an additive including at least one salt selected from salts represented by the following Chemical Formula 1 to Chemical Formula 5 and a glyme-based solvent; fabricating a half-cell including the working electrode, a counter electrode, a reference electrode, and the composition for forming the first solid electrolyte layer; forming the first solid electrolyte layer on the working electrode by operating the half-cell; and separating the working electrode on which the first solid electrolyte layer has been formed, wherein, in Chemical Formula 1 to Chemical Formula 4, Y 1 to Y 6 are each independently a C1 to C3 ring, and hydrogen of the ring is substituted with at least one of a halogen atom, oxygen, or a C1 to C3 alkyl group substituted with a halogen atom or unsubstituted, in Chemical Formula 2 to Chemical Formula 4, X 1 to X 6 are each independently a halogen atom, and in Chemical Formula 5, R is a substituted or unsubstituted C1 to C5 alkyl group. preparing a working electrode including a metal thin film; preparing a composition for forming a first solid electrolyte layer including an additive including at least one salt selected from salts represented by the following Chemical Formula 1 to Chemical Formula 5 and a glyme-based solvent; fabricating a half-cell including the working electrode, a counter electrode, a reference electrode, and the composition for forming the first solid electrolyte layer; forming the first solid electrolyte layer on the working electrode by operating the half-cell; and separating the working electrode on which the first solid electrolyte layer has been formed, wherein, in Chemical Formula 1 to Chemical Formula 4, Y 1 to Y 6 are each independently a C1 to C3 ring, and hydrogen of the ring is substituted with at least one of a halogen atom, oxygen, or a C1 to C3 alkyl group substituted with a halogen atom or unsubstituted, in Chemical Formula 2 to Chemical Formula 4, X 1 to X 6 are each independently a halogen atom, and in Chemical Formula 5, R is a substituted or unsubstituted C1 to C5 alkyl group.