mhurhangee/patent-ind-claim-en huggingface dataset:
A method for full color data processing for a 3D target object , comprising: performing a layering process on the 3D target object to determine slice-layer data of each layer, wherein the slice-layer data includes layer-color data, wherein the layer-color data represents color information of the 3D target object, wherein the slice-layer data also includes layer-structure data, wherein the layer-structure data represents a printing location of the 3D target object; wherein the slice-layer data is either included in a first bitmap image or in a first and second bitmap images, the first bitmap image including the layer color data and the second bitmap image including the layer structure data and the method comprises analyzing the layer-color data and the layer-structure data when the layer-color data is indistinguishable from the background color data of the first bitmap image, and analyzing only the layer-color data when the layer-color data is distinguishable from the background color data of the first bitmap image, thereby determining a layer color of the 3D target object and determining printing information of the 3D target object. performing a layering process on the 3D target object to determine slice-layer data of each layer, wherein the slice-layer data includes layer-color data, wherein the layer-color data represents color information of the 3D target object, wherein the slice-layer data also includes layer-structure data, wherein the layer-structure data represents a printing location of the 3D target object; wherein the slice-layer data is either included in a first bitmap image or in a first and second bitmap images, the first bitmap image including the layer color data and the second bitmap image including the layer structure data and the method comprises analyzing the layer-color data and the layer-structure data when the layer-color data is indistinguishable from the background color data of the first bitmap image, and analyzing only the layer-color data when the layer-color data is distinguishable from the background color data of the first bitmap image, thereby determining a layer color of the 3D target object and determining printing information of the 3D target object.
A system for projecting a linear beam of light on a distant object so as to form a line of illumination on the distant object, the system comprising: a laser diode bar having one or more laser diodes distributed along a common transverse axis , each of the one or more of laser diodes configured to emit a beam of light in an emission direction orthogonal to the transverse axis , the emitted beam diverging at a first divergence angle in a fast-axis direction orthogonal to both the transverse axis and the emission direction, and diverging in a slow-axis direction at a second divergence angle less than the first divergence angle, the slow-axis direction parallel to the transverse axis ; a first cylindrical lens configured to collimate, in a fast-axis direction, the beam of light emitted by each of the one or more laser diodes; and a second cylindrical lens configured to diverge, in a slow-axis direction, the beam of light emitted by each of the one or more of laser diodes such that the beams of light emitted by the one or more laser diodes overlap one another in the slow-axis direction, characterised in that the second cylindrical lens is a concave lens with concavity in the slow-axis direction. a laser diode bar having one or more laser diodes distributed along a common transverse axis , each of the one or more of laser diodes configured to emit a beam of light in an emission direction orthogonal to the transverse axis , the emitted beam diverging at a first divergence angle in a fast-axis direction orthogonal to both the transverse axis and the emission direction, and diverging in a slow-axis direction at a second divergence angle less than the first divergence angle, the slow-axis direction parallel to the transverse axis ; a first cylindrical lens configured to collimate, in a fast-axis direction, the beam of light emitted by each of the one or more laser diodes; and a second cylindrical lens configured to diverge, in a slow-axis direction, the beam of light emitted by each of the one or more of laser diodes such that the beams of light emitted by the one or more laser diodes overlap one another in the slow-axis direction, characterised in that the second cylindrical lens is a concave lens with concavity in the slow-axis direction.
A data center rack comprising a visual indicating device , said data center rack being configured to receive a plurality of items of equipment, said indicating device comprising: - a communication unit to receive at least one signal from at least one item of equipment of said plurality of items of equipment, said at least one signal representing information enabling a state of said at least one item of equipment to be determined, - a control unit configured to determine a state of the data center rack based on at least said at least one signal from at least one item of equipment of said plurality of items of equipment, and - a display unit for displaying a representation of the state determined by the control unit, said display unit being on an upper external face of the data center rack so as to protrude from the top of the data center rack so as to be visually identifiable from among a plurality of data center racks, wherein the items of equipment can have a state among a plurality of possible states, said possible states being ordered by levels, and wherein the display unit comprises a plurality of indicators respectively corresponding to the levels of said plurality of possible states, and wherein the control unit is configured to control the display unit so that each indicator is either active if at least one item of equipment of said plurality of items of equipment is in the state corresponding to the indicator, and inactive otherwise. - a communication unit to receive at least one signal from at least one item of equipment of said plurality of items of equipment, said at least one signal representing information enabling a state of said at least one item of equipment to be determined, - a control unit configured to determine a state of the data center rack based on at least said at least one signal from at least one item of equipment of said plurality of items of equipment, and - a display unit for displaying a representation of the state determined by the control unit, said display unit being on an upper external face of the data center rack so as to protrude from the top of the data center rack so as to be visually identifiable from among a plurality of data center racks,
A positive electrode active material for a secondary battery, the positive electrode active material comprising: lithium composite transition metal oxide particles including 70 mol% or more of nickel (Ni) among total metals excluding lithium; and a coating portion formed on surfaces of the lithium composite transition metal oxide particles, wherein the coating portion comprises a compound including fluorine and at least one selected from the group consisting of aluminum (Al), titanium (Ti), magnesium (Mg), zirconium (Zr), tungsten (W), and strontium (Sr), wherein the positive electrode active material has a Brunauer-Emmett-Teller (BET) specific surface area in a range of 0.1 m 2 /g to 0.9 m 2 /g, and wherein an amount of a lithium by-product on a surface of the positive electrode active material is 0.65 wt% or less based on a total weight of the positive electrode active material. lithium composite transition metal oxide particles including 70 mol% or more of nickel (Ni) among total metals excluding lithium; and a coating portion formed on surfaces of the lithium composite transition metal oxide particles, wherein the coating portion comprises a compound including fluorine and at least one selected from the group consisting of aluminum (Al), titanium (Ti), magnesium (Mg), zirconium (Zr), tungsten (W), and strontium (Sr), wherein the positive electrode active material has a Brunauer-Emmett-Teller (BET) specific surface area in a range of 0.1 m 2 /g to 0.9 m 2 /g, and wherein an amount of a lithium by-product on a surface of the positive electrode active material is 0.65 wt% or less based on a total weight of the positive electrode active material.
An electrochemical sensor, comprising: a base plate provided with a concave part formed on one of surfaces thereof; a fluid channel formed so that a bottom part of the concave part and the other one of the surfaces of the base plate are communicated with each other; a plurality of electrodes formed on the concave part comprising a working electrode and a counter electrode , and a gap is formed between the working electrode and the counter electrode such that the electrodes are in an insulated state; a reagent layer containing enzymes formed on the working electrode; a cover which covers the concave part; and an air channel comprising an opening in said cover; characterised in that the working electrode is formed to surround the fluid channel and the counter electrode is formed to surround the working electrode on the bottom part of the concave part a base plate provided with a concave part formed on one of surfaces thereof; a fluid channel formed so that a bottom part of the concave part and the other one of the surfaces of the base plate are communicated with each other; a plurality of electrodes formed on the concave part comprising a working electrode and a counter electrode , and a gap is formed between the working electrode and the counter electrode such that the electrodes are in an insulated state; a reagent layer containing enzymes formed on the working electrode; a cover which covers the concave part; and an air channel comprising an opening in said cover; characterised in that the working electrode is formed to surround the fluid channel and the counter electrode is formed to surround the working electrode on the bottom part of the concave part
Pre-slab including a concrete body and at least one edging strip extending along a straight line (X), the edging strip including a cellular plastic material structure that comprises raised cells extending from the structure toward the exterior of the edging strip to face the concrete body , the edging strip being fixed to the concrete body to form at least a part of an edge of the pre-slab, an upper portion of the edging strip projecting from an upper face of the concrete body.
A multiphase loop reactor having an inner cylinder and an outer cylinder of different diameters arranged to form a cylinder annular gap therebetween, wherein the inner cylinder and the cylinder annular gap acts as an upcomer and the other correspondingly acts as a downcomer, so that a continuous phase can perform a loop flow , wherein a first inlet for a first disperse phase and a second inlet for a second disperse phase are arranged in such a way that the first and the second disperse phase can be dispersed spatially separated from each other into the continuous phase , wherein one of the first or second disperse phases can drive the loop flow and the other of the first and second disperse phases can form a counterflow to the loop flow and in that a separating device is provided opposite the inlets in the upper region of the multiphase loop reactor , which prevents the first and second disperse phases from mixing, characterized in that the region formed by the upcomer is separated from the region formed by the downcomer and only one of the disperse phases is present in each of these regions, the cross-sectional area Au of the upcomer is related to the cross-sectional area A D of the downcomer as follows: 1 2 ≤ A U A D ≤ 2 1 , the first inlet and the second inlet are arranged in a lower region of the upcomer and the downcomer, respectively, and the separating device comprises at least one collecting device for the first and/or second disperse phase or its reaction products, wherein for preventing the entrainment of the second disperse phase into an inner region of the inner cylinder by the loop flow , the collecting device is arranged inserted into the inner cylinder or the inner cylinder is arranged inserted into the collecting device . wherein the inner cylinder and the cylinder annular gap acts as an upcomer and the other correspondingly acts as a downcomer, so that a continuous phase can perform a loop flow , wherein a first inlet for a first disperse phase and a second inlet for a second disperse phase are arranged in such a way that the first and the second disperse phase can be dispersed spatially separated from each other into the continuous phase , wherein one of the first or second disperse phases can drive the loop flow and the other of the first and second disperse phases can form a counterflow to the loop flow and in that a separating device is provided opposite the inlets in the upper region of the multiphase loop reactor , which prevents the first and second disperse phases from mixing, the region formed by the upcomer is separated from the region formed by the downcomer and only one of the disperse phases is present in each of these regions, the cross-sectional area Au of the upcomer is related to the cross-sectional area A D of the downcomer as follows: 1 2 ≤ A U A D ≤ 2 1 , the first inlet and the second inlet are arranged in a lower region of the upcomer and the downcomer, respectively, and
A method of controlling a HVAC system , comprising: obtaining an unloader state of an unloader of a compressor of the HVAC system ; obtaining a control parameter based on an association map between the control parameter and the unloader state; and controlling the HVAC system based on the control parameter; characterised in that obtaining the unloader state includes: obtaining a compressor operation condition; obtaining a measurable parameter of the compressor ; and estimating the unloader state based on an association map between the unloader state and the obtained measurable parameter of the compressor for the obtained compressor condition. obtaining an unloader state of an unloader of a compressor of the HVAC system ; obtaining a control parameter based on an association map between the control parameter and the unloader state; and controlling the HVAC system based on the control parameter; characterised in that obtaining the unloader state includes: obtaining a compressor operation condition; obtaining a measurable parameter of the compressor ; and estimating the unloader state based on an association map between the unloader state and the obtained measurable parameter of the compressor for the obtained compressor condition. obtaining a compressor operation condition; obtaining a measurable parameter of the compressor ; and estimating the unloader state based on an association map between the unloader state and the obtained measurable parameter of the compressor for the obtained compressor condition.
A radiography apparatus comprising: an irradiation unit having an irradiation opening through which radiation is emitted; an image receiving unit that has an image receiving surface receiving the radiation, which has been emitted from the irradiation unit and transmitted through a subject, and outputs a radiographic image of the subject; an arm that has one end at which the irradiation unit is provided and the other end at which the image receiving unit is capable of being supported in a posture in which the irradiation opening of the irradiation unit and the image receiving surface face each other and supports the irradiation unit so as to be rotatable in a direction in which orientation of the irradiation opening with respect to the image receiving surface is changed; a locking mechanism that locks rotation of the irradiation unit with respect to the arm in a facing posture in which the irradiation opening and the image receiving surface face each other; and a control unit that is capable of directing the irradiation unit to perform moving image capture irradiation in which the irradiation unit continuously emits the radiation to capture a moving image of the subject, permits the moving image capture irradiation in a state in which the rotation of the irradiation unit is locked by the locking mechanism, and prohibits the moving image capture irradiation in a state in which the rotation is unlocked by the locking mechanism. an irradiation unit having an irradiation opening through which radiation is emitted; an image receiving unit that has an image receiving surface receiving the radiation, which has been emitted from the irradiation unit and transmitted through a subject, and outputs a radiographic image of the subject; an arm that has one end at which the irradiation unit is provided and the other end at which the image receiving unit is capable of being supported in a posture in which the irradiation opening of the irradiation unit and the image receiving surface face each other and supports the irradiation unit so as to be rotatable in a direction in which orientation of the irradiation opening with respect to the image receiving surface is changed; a locking mechanism that locks rotation of the irradiation unit with respect to the arm in a facing posture in which the irradiation opening and the image receiving surface face each other; and a control unit that is capable of directing the irradiation unit to perform moving image capture irradiation in which the irradiation unit continuously emits the radiation to capture a moving image of the subject, permits the moving image capture irradiation in a state in which the rotation of the irradiation unit is locked by the locking mechanism, and prohibits the moving image capture irradiation in a state in which the rotation is unlocked by the locking mechanism.
A method for manufacturing a compact, comprising: a mixing step of mixing a fiber (M6) and a powder of a binder (P1) to obtain a mixture (M7); an accumulating step of accumulating the mixture (M7) to form a web (M8); a humidifying step of adding water to the web (M8); and a forming step of heating and pressurizing the water-added web to obtain a compact (S), wherein the fiber is a natural fiber; the binder (P1) binds between fiber molecules by the addition of water; the binder is selected from starch and dextrin; and the powder has a volume-based average particle diameter (D50) of 20.0 or less. an accumulating step of accumulating the mixture (M7) to form a web (M8); a humidifying step of adding water to the web (M8); and a forming step of heating and pressurizing the water-added web to obtain a compact (S), wherein the fiber is a natural fiber; the binder (P1) binds between fiber molecules by the addition of water; the binder is selected from starch and dextrin; and the powder has a volume-based average particle diameter (D50) of 20.0 or less.
A method of testing the operational status of an infrared sensor system , the system comprising an infrared sensor comprising a thermopile having a plurality of thermocouples connected in series with hot junctions connected to an infrared sensor absorber window , and a heater , located proximate to the infrared sensor , for heating the infrared sensor , wherein said infrared sensor system is located in a vacuum pump and directed to measure the thermal radiation emitted from a vacuum pump rotor surface ; said method comprising the steps of: i. directing the infrared sensor at the vacuum pump rotor surface , the vacuum pump rotor surface having an emissivity E; ii. raising the temperature of the heater to heat the infrared sensor without significantly heating the vacuum pump rotor surface ; iii. measuring the voltage generated, V G , by heating the infrared sensor ; and iv. comparing the voltage generated by the infrared sensor with an expected voltage, V E , and v. if V G does not substantially equal V E , determining that the infrared system requires servicing due to contamination of the window or, if V G substantially equals V E , determining that the infrared sensor system is at ideal operational status. i. directing the infrared sensor at the vacuum pump rotor surface , the vacuum pump rotor surface having an emissivity E; ii. raising the temperature of the heater to heat the infrared sensor without significantly heating the vacuum pump rotor surface ; iii. measuring the voltage generated, V G , by heating the infrared sensor ; and iv. comparing the voltage generated by the infrared sensor with an expected voltage, V E , and v. if V G does not substantially equal V E , determining that the infrared system requires servicing due to contamination of the window or, if V G substantially equals V E , determining that the infrared sensor system is at ideal operational status.
Shed-forming device for a weaving machine, comprising: - a first pulley element and a second pulley element , - lifting and selection means - in order to, in successive shed-forming cycles, bring the first pulley element into a top position (T1) or a bottom position (B1), as desired, and bring the second pulley element into a top position (T2) or a bottom position (B2), as desired, and - a pulley cord which is connected to a heddle for positioning at least one warp thread on a weaving machine and which cooperates with the first and the second pulley element in such a way that the heddle can be brought to four different heights (H1), (H2), (H3), (H4), depending on the positions (T1), (B1);(T2), (B2) of the two pulley elements , , characterized in that, the second pulley element is movable between its top (T2) and its bottom position (B2) in a movement space (B) which is located at least partly within the space (A) occupied by the first pulley element , both when the first pulley element has been brought to its top position (T1) and when it has been brought into its bottom position (B1). - a first pulley element and a second pulley element , - lifting and selection means - in order to, in successive shed-forming cycles, bring the first pulley element into a top position (T1) or a bottom position (B1), as desired, and bring the second pulley element into a top position (T2) or a bottom position (B2), as desired, and - a pulley cord which is connected to a heddle for positioning at least one warp thread on a weaving machine and which cooperates with the first and the second pulley element in such a way that the heddle can be brought to four different heights (H1), (H2), (H3), (H4), depending on the positions (T1), (B1);(T2), (B2) of the two pulley elements , ,
A method for transmitting safety related information from an elevator car comprising: receiving at a communication module safety related information from at least one device producing safety related information ; transmitting said received information as a first signal by a first wireless transmitter ; producing a second signal based on said received information ; and transmitting said second signal by a second wireless transmitter, characterized by transmitting said second signal using transmission over a wireless energy charging channel . receiving at a communication module safety related information from at least one device producing safety related information ; transmitting said received information as a first signal by a first wireless transmitter ; producing a second signal based on said received information ; and transmitting said second signal by a second wireless transmitter, characterized by transmitting said second signal using transmission over a wireless energy charging channel .