mhurhangee/patent-ind-claim-en huggingface dataset:
A working tool with a working head and a body device , wherein an electric motor and a transmission , which are connected to one another, are arranged in the body device , and wherein the electric motor additionally comprises a driveshaft with a longitudinal axis (x) and the transmission is connected to the electric motor so as to be movable in the direction of the longitudinal axis (x) in such a way that its motion is limited by a limit stop, characterized in that a housing bottom of a housing of the transmission abuts in an unaffected home position on a ceiling of a housing of the electric motor in such a way that its motion is limited by a limit stop, and in that a driveshaft of the electric motor extends through the ceiling , as well as the bottom , in order to engage into the transmission region.
Method for manufacturing at least one flow guide for an electrochemical reactor, comprising the following steps: - Providing a substrate , - Providing a first mesh screen comprising first openings configured to form at least one negative of a first pattern of ridges of a first flow guide , - Printing, on a first face of the substrate , a first so-called sacrificial layer with the basis of a first elastomer by screen printing using a first mesh screen , - Depositing, on the first face of the substrate , a first conductive layer with the basis of a first printing ink to form the ridges of the first flow guide , then - Removing the first sacrificial layer . - Providing a substrate , - Providing a first mesh screen comprising first openings configured to form at least one negative of a first pattern of ridges of a first flow guide , - Printing, on a first face of the substrate , a first so-called sacrificial layer with the basis of a first elastomer by screen printing using a first mesh screen , - Depositing, on the first face of the substrate , a first conductive layer with the basis of a first printing ink to form the ridges of the first flow guide , then - Removing the first sacrificial layer .
A vehicle lamp , comprising: at least one head lamp having a plurality of optical modules spaced apart from each other, each optical module comprising a base substrate and a plurality of light emitting diodes disposed on the base substrate; and at least one processor configured to control the plurality of optical modules to form a light distribution pattern, wherein the at least one processor is configured to control the plurality of light emitting diodes in each of the plurality of optical modules to form a respective part of the light distribution pattern, characterized in that said each of the plurality of optical modules is configured to be bent by an external force from a first state with an infinite radius of curvature to a second state with a finite radius of curvature, at least one of the plurality of optical modules is disposed in the at least one head lamp in the second state, and a first diode and a second diode of an optical module disposed in the second state are directed in different directions from each other. at least one head lamp having a plurality of optical modules spaced apart from each other, each optical module comprising a base substrate and a plurality of light emitting diodes disposed on the base substrate; and at least one processor configured to control the plurality of optical modules to form a light distribution pattern, wherein the at least one processor is configured to control the plurality of light emitting diodes in each of the plurality of optical modules to form a respective part of the light distribution pattern, characterized in that said each of the plurality of optical modules is configured to be bent by an external force from a first state with an infinite radius of curvature to a second state with a finite radius of curvature, at least one of the plurality of optical modules is disposed in the at least one head lamp in the second state, and a first diode and a second diode of an optical module disposed in the second state are directed in different directions from each other.
A method for producing a lithium ion secondary battery comprising: a solid solution positive electrode active material represented by the following composition formula : Li 2 − 0.5 x Mn 1 − x M 1.5 x O 3 x satisfies 0 < x < 1 (M in formula is a lithium-containing transition metal oxide expressed by Ni a Co b Mn c M1 d (in which 0 < a ≤ 0.5, 0 ≤ b ≤ 0.33, 0 < c ≤ 0.5, and 0 ≤ d ≤ 0.1 are satisfied, the sum of a, b, c, and d becomes 1, and M1 in the formula is an element selected from Li, Al, Zr, Ti, and Nb)); and a negative electrode comprising a negative electrode active material comprising carbon materials, silicon based materials or a combination of both; the method comprising: a Step (a) for repeating charge-discharge multiple times, wherein the upper limit charging voltage is the same as or higher than the immediately prior charge-discharge interval such that the charge-discharge interval is greater or the same as the immediately prior charge-discharge interval; characterized in that the method further comprises a Step (b) in which discharge is carried out at a lower current density than a current density during charging, during each discharge of the multiple charges-discharges, wherein a lower limit value of a battery voltage during each discharge is set to 3.0-2.0 V. a solid solution positive electrode active material represented by the following composition formula : Li 2 − 0.5 x Mn 1 − x M 1.5 x O 3 x satisfies 0 < x < 1 (M in formula is a lithium-containing transition metal oxide expressed by Ni a Co b Mn c M1 d (in which 0 < a ≤ 0.5, 0 ≤ b ≤ 0.33, 0 < c ≤ 0.5, and 0 ≤ d ≤ 0.1 are satisfied, the sum of a, b, c, and d becomes 1, and M1 in the formula is an element selected from Li, Al, Zr, Ti, and Nb)); and a negative electrode comprising a negative electrode active material comprising carbon materials, silicon based materials or a combination of both; the method comprising: a Step (a) for repeating charge-discharge multiple times, wherein the upper limit charging voltage is the same as or higher than the immediately prior charge-discharge interval such that the charge-discharge interval is greater or the same as the immediately prior charge-discharge interval; characterized in that the method further comprises a Step (b) in which discharge is carried out at a lower current density than a current density during charging, during each discharge of the multiple charges-discharges, wherein a lower limit value of a battery voltage during each discharge is set to 3.0-2.0 V. a Step (a) for repeating charge-discharge multiple times, wherein the upper limit charging voltage is the same as or higher than the immediately prior charge-discharge interval such that the charge-discharge interval is greater or the same as the immediately prior charge-discharge interval; characterized in that the method further comprises a Step (b) in which discharge is carried out at a lower current density than a current density during charging, during each discharge of the multiple charges-discharges, wherein a lower limit value of a battery voltage during each discharge is set to 3.0-2.0 V.
A dark, neutral gray-colored, low-transmittance glass composition with low color purity, comprising: as colorant ingredients, 1.4 to 2 parts by weight of total Fe 2 O 3 , 0.02 to 0.035 parts by weight of CoO and 0.0015 to 0.004 parts by weight of Se, based on 100 parts by weight of a base glass composition, wherein FeO content in the total Fe 2 O 3 is 10 to 30% by weight, the weight ratio of CoO to Se is from 6.5:1 to 14:1, the glass composition does not comprise an oxide of rare-earth element selected from lanthanides consisting of Ce, Sc, Y, La, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb and Lu, as an oxidant and a colorant ingredient, and the glass composition has a solar energy transmittance (T e ) of 15% or less, and an ultraviolet rays transmittance (T uv ) of 3% or less, measured for a reference thickness of 4mm, wherein the base glass composition comprises 65 to 75% by weight of SiO 2 , 0.3 to 3% by weight of Al 2 O 3 , 10 to 18% by weight of [Na 2 O + K 2 O], 5 to 15% by weight of CaO and 1 to 7% by weight of MgO. as colorant ingredients, 1.4 to 2 parts by weight of total Fe 2 O 3 , 0.02 to 0.035 parts by weight of CoO and 0.0015 to 0.004 parts by weight of Se, based on 100 parts by weight of a base glass composition, wherein FeO content in the total Fe 2 O 3 is 10 to 30% by weight, the weight ratio of CoO to Se is from 6.5:1 to 14:1, the glass composition does not comprise an oxide of rare-earth element selected from lanthanides consisting of Ce, Sc, Y, La, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb and Lu, as an oxidant and a colorant ingredient, and the glass composition has a solar energy transmittance (T e ) of 15% or less, and an ultraviolet rays transmittance (T uv ) of 3% or less, measured for a reference thickness of 4mm, wherein the base glass composition comprises 65 to 75% by weight of SiO 2 , 0.3 to 3% by weight of Al 2 O 3 , 10 to 18% by weight of [Na 2 O + K 2 O], 5 to 15% by weight of CaO and 1 to 7% by weight of MgO.
A time-to-digital converter, TDC, circuitry for converting a phase difference between an input reference signal and an input clock signal to a digitally represented output signal , the TDC circuitry comprising: a plurality of constituent TDC:s (101, 102, 103, 200, 301, ..., 308), wherein each constituent TDC is configured to convert a phase difference between a constituent reference signal (181, 182, 183, 282, 381, ..., 388) and a constituent clock signal (110, 210, 371, ..., 378) to a digitally represented constituent output signal (131, 132, 133, 232, 331, ..., 338); a reference signal provider configured to provide the respective constituent reference signals (181, 182, 183, 282, 381, ..., 388) to each of the constituent TDC:s (101, 102, 103, 200, 301, ..., 308), wherein - in at least a parallel operation mode of the TDC circuitry - each respective constituent reference signal comprises a respectively delayed version of the input reference signal with different respective delays for at least two of the respective constituent reference signals; and a digital signal combiner configured to provide the digitally represented output signal based on the digitally represented constituent output signals (131, 132, 133, 232, 331, ..., 338) of the constituent TDC:s; wherein the reference signal provider is configured to provide - in at least the parallel operation mode of the TDC circuitry - the respective constituent reference signals (181, 182, 183, 282, 282, 381, ..., 388) as respectively delayed versions of the input reference signal with the respective delays (121, 122, 123, 321, ..., 328) being stochastically generated. a plurality of constituent TDC:s (101, 102, 103, 200, 301, ..., 308), wherein each constituent TDC is configured to convert a phase difference between a constituent reference signal (181, 182, 183, 282, 381, ..., 388) and a constituent clock signal (110, 210, 371, ..., 378) to a digitally represented constituent output signal (131, 132, 133, 232, 331, ..., 338); a reference signal provider configured to provide the respective constituent reference signals (181, 182, 183, 282, 381, ..., 388) to each of the constituent TDC:s (101, 102, 103, 200, 301, ..., 308), wherein - in at least a parallel operation mode of the TDC circuitry - each respective constituent reference signal comprises a respectively delayed version of the input reference signal with different respective delays for at least two of the respective constituent reference signals; and a digital signal combiner configured to provide the digitally represented output signal based on the digitally represented constituent output signals (131, 132, 133, 232, 331, ..., 338) of the constituent TDC:s; wherein the reference signal provider is configured to provide - in at least the parallel operation mode of the TDC circuitry - the respective constituent reference signals (181, 182, 183, 282, 282, 381, ..., 388) as respectively delayed versions of the input reference signal with the respective delays (121, 122, 123, 321, ..., 328) being stochastically generated.
A household appliance comprising a body , a cut-out arranged on the body , and a housing that is disposed into the cut-out and that houses the electronic components placed therein, wherein there is a protector and a cover , wherein the protector is mounted over the housing and the cover is mounted on the protector , wherein the protector is fixed between the housing and the cover , wherein the cover is produced from metal, characterized in that the protector is produced from plastic.
An optical fiber holder for holding an optical fiber (G1), the optical fiber holder comprising: a holder main body ; a lid , and a groove part that is capable of holding a part of the held optical fiber (G1), wherein the optical fiber holder has an adjustment mechanism that is capable of adjusting a position of the groove part with respect to the holder main body in a state where the groove part is placed on the holder main body , the optical fiber holder further comprising: a fixing mechanism capable of fixing the groove part to the holder main body and wherein the fixing mechanism includes a female screw provided in at least three places on a side part of the holder main body facing the groove part in a state where the groove part is placed on the holder main body , a male screw screwed to the female screw , characterised by a recessed part provided in a portion of the groove part , the portion facing the female screw , and wherein the recessed part is at a height position such that a position of an apex of a tip of the male screw is between a lower end of the recessed part and a central part , the tip of the male screw is configured to abut the recessed part by tightening the male screw , and the groove part is configured to be pressed toward a bottom surface of the holder main body . a holder main body ; a lid , and a groove part that is capable of holding a part of the held optical fiber (G1), wherein the optical fiber holder has an adjustment mechanism that is capable of adjusting a position of the groove part with respect to the holder main body in a state where the groove part is placed on the holder main body , a fixing mechanism capable of fixing the groove part to the holder main body and wherein the fixing mechanism includes a female screw provided in at least three places on a side part of the holder main body facing the groove part in a state where the groove part is placed on the holder main body , a male screw screwed to the female screw , characterised by a recessed part provided in a portion of the groove part , the portion facing the female screw , and wherein the recessed part is at a height position such that a position of an apex of a tip of the male screw is between a lower end of the recessed part and a central part , the tip of the male screw is configured to abut the recessed part by tightening the male screw , and the groove part is configured to be pressed toward a bottom surface of the holder main body .
An eccentricity calculating method for determining eccentricity information of a center line (C1) of a scale with respect to a rotational axis line (C0), in a rotary encoder , wherein the rotary encoder has the scale in which a pattern is arranged, and has a pair of sensor units that read the pattern of the scale , wherein the scale moves, relatively to the pair of sensor units , around the rotational axis line (C0), and the pair of sensor units are arranged so as to be opposite to each other sandwiching the rotational axis line (C0) therebetween, the eccentricity calculating method comprising: acquiring an output signal from each of the pair of sensor units , in a plurality of rotation angles by which the scale has been moved relatively to the pair of sensor units , determining first phase information based on the output signal that has been obtained from one of the pair of sensor units , and second phase information based on the output signal that has been obtained from the other one of the pair of sensor units , characterized by determining a differential value between a first value and a second value, wherein the first value is any one of the first phase information and the second phase information, and the second value is an average value of the first phase information and the second phase information, and determining the eccentricity information, based on the differential value. the scale moves, relatively to the pair of sensor units , around the rotational axis line (C0), and the pair of sensor units are arranged so as to be opposite to each other sandwiching the rotational axis line (C0) therebetween, acquiring an output signal from each of the pair of sensor units , in a plurality of rotation angles by which the scale has been moved relatively to the pair of sensor units , determining first phase information based on the output signal that has been obtained from one of the pair of sensor units , and second phase information based on the output signal that has been obtained from the other one of the pair of sensor units , characterized by determining a differential value between a first value and a second value, wherein the first value is any one of the first phase information and the second phase information, and the second value is an average value of the first phase information and the second phase information, and determining the eccentricity information, based on the differential value.
An LED filament comprising: a light-transmissive substrate ; a plurality of blue light emitting LED chips mounted on said light-transmissive substrate; and a photoluminescence material covering said plurality of blue light emitting LED chips, characterised in that said photoluminescence material comprising narrow-band red phosphor particles comprising at least one Group IIA/IIB selenide sulfide-based phosphor material that generate light with a peak emission wavelength in a range of 600 nm to 640 nm and a full width at half maximum emission intensity of 50 nm to 60 nm and wherein said LED filament is operable to generate light with a CRI Ra greater than or equal to about 90. a light-transmissive substrate ; a plurality of blue light emitting LED chips mounted on said light-transmissive substrate; and a photoluminescence material covering said plurality of blue light emitting LED chips, characterised in that said photoluminescence material comprising narrow-band red phosphor particles comprising at least one Group IIA/IIB selenide sulfide-based phosphor material that generate light with a peak emission wavelength in a range of 600 nm to 640 nm and a full width at half maximum emission intensity of 50 nm to 60 nm and wherein said LED filament is operable to generate light with a CRI Ra greater than or equal to about 90.
A microscope system comprising: an observation optical system including an objective lens ; an XY stage including an XY plane along an X-axis direction and a Y-axis direction and capable of moving in the X-axis direction and the Y-axis direction, wherein XY stage includes a first mark arranged on the XY stage ; a slide capable of being placed on the XY stage and including a second mark (704 - 707) arranged on the slide ; first change means configured to change a slant of the XY stage with respect to an optical axis direction of the objective lens ; second change means configured to change a slant of the slide when being placed on the XY stage with respect to the XY plane of the XY stage ; and control means configured to perform first control of changing the slant of the XY stage by the first change means based on a focus detection of the first mark arranged on the XY stage at a position observable by the observation optical system and second control of changing the slant of the slide with respect to the XY stage by the second change means based on a focus detection of the second mark (704 - 707) arranged on the slide . an observation optical system including an objective lens ; an XY stage including an XY plane along an X-axis direction and a Y-axis direction and capable of moving in the X-axis direction and the Y-axis direction, wherein XY stage includes a first mark arranged on the XY stage ; a slide capable of being placed on the XY stage and including a second mark (704 - 707) arranged on the slide ; first change means configured to change a slant of the XY stage with respect to an optical axis direction of the objective lens ; second change means configured to change a slant of the slide when being placed on the XY stage with respect to the XY plane of the XY stage ; and control means configured to perform first control of changing the slant of the XY stage by the first change means based on a focus detection of the first mark arranged on the XY stage at a position observable by the observation optical system and second control of changing the slant of the slide with respect to the XY stage by the second change means based on a focus detection of the second mark (704 - 707) arranged on the slide .
Microvascular blood flow decreasing agent comprising an immune checkpoint inhibitor for use in a method of treating inflammation, wherein said microvascular blood flow decreasing agent is administered by injection into a nutrient artery to selectively and significantly decrease blood flow through a microvasculature.