mhurhangee/patent-ind-claim-en huggingface dataset:
A process for the manufacture of synthetic food-grade astaxanthin with a content of dichloromethane ≤ 250 ppm comprising the following steps: a) Providing synthetic astaxanthin crystals containing dichloromethane; and b) Adding methanol to the synthetic astaxanthin in an amount to obtain a suspension of synthetic astaxanthin in methanol, whereby the amount of synthetic astaxanthin in said suspension is in the range of from 5 to 50 weight-%, based on the total weight of the suspension; and c) bringing the suspension obtained in step b) to a temperature in the range of from 80 to 140°C, whereby the pressure is above atmospheric pressure; and d) Maintaining the suspension at a temperature in the range of from 80 to 140°C and at a pressure above atmospheric pressure while removing dichloromethane and methanol by distillation until the amount of synthetic astaxanthin in said suspension is in the range of from 25 to 75 weight-%, based on the total weight of the suspension, with the proviso that the amount of synthetic astaxanthin in said suspension is higher than in the starting suspension obtained in step b); and e) Cooling the synthetic astaxanthin suspension to a temperature in the range of 10 to 35°C; and f) Optionally filtering off the synthetic astaxanthin crystals; and g) drying the cooled synthetic astaxanthin suspension obtained in step e) or the filtered synthetic astaxanthin crystals obtained in step f); whereby during the process the synthetic astaxanthin is not completely solved in the methanol, and whereby a synthetic food-grade astaxanthin with a content of dichloromethane ≤ 250 ppm is obtained. a) Providing synthetic astaxanthin crystals containing dichloromethane; and b) Adding methanol to the synthetic astaxanthin in an amount to obtain a suspension of synthetic astaxanthin in methanol, whereby the amount of synthetic astaxanthin in said suspension is in the range of from 5 to 50 weight-%, based on the total weight of the suspension; and c) bringing the suspension obtained in step b) to a temperature in the range of from 80 to 140°C, whereby the pressure is above atmospheric pressure; and d) Maintaining the suspension at a temperature in the range of from 80 to 140°C and at a pressure above atmospheric pressure while removing dichloromethane and methanol by distillation until the amount of synthetic astaxanthin in said suspension is in the range of from 25 to 75 weight-%, based on the total weight of the suspension, with the proviso that the amount of synthetic astaxanthin in said suspension is higher than in the starting suspension obtained in step b); and e) Cooling the synthetic astaxanthin suspension to a temperature in the range of 10 to 35°C; and f) Optionally filtering off the synthetic astaxanthin crystals; and g) drying the cooled synthetic astaxanthin suspension obtained in step e) or the filtered synthetic astaxanthin crystals obtained in step f); whereby during the process the synthetic astaxanthin is not completely solved in the methanol, and whereby a synthetic food-grade astaxanthin with a content of dichloromethane ≤ 250 ppm is obtained.
A computed radiography (CR) system for imaging an object , the CR system comprising: a radiation source ; a storage phosphor screen , wherein the radiation source is configured to irradiate the storage phosphor screen through the object , and wherein the storage phosphor screen is configured to store a radiation energy pattern of the object ; an illumination source configured to illuminate at least a sub-area of a storage phosphor screen to stimulate emission of a plurality of photons from the storage phosphor screen ; a two dimensional imager configured to capture at least one two dimensional image from at least a sub-area of the storage phosphor screen using at least the stimulated emission photons; wherein the storage phosphor screen is further configured to emit a plurality of prompt emission photons upon irradiation, and wherein the 2D imager is further configured to receive the prompt emission photons from the storage phosphor screen ; and a dichroic filter positioned between the illumination source and the storage phosphor screen and configured to pass stimulating illumination from the illumination source to the storage phosphor screen and to reflect the stimulated emission photons from the storage phosphor screen, wherein the 2D imager is further configured to receive the stimulated emission photons reflected by the dichroic filter; wherein the CR system is configured as a front lit CR system. a radiation source ; a storage phosphor screen , wherein the radiation source is configured to irradiate the storage phosphor screen through the object , and wherein the storage phosphor screen is configured to store a radiation energy pattern of the object ; an illumination source configured to illuminate at least a sub-area of a storage phosphor screen to stimulate emission of a plurality of photons from the storage phosphor screen ; a two dimensional imager configured to capture at least one two dimensional image from at least a sub-area of the storage phosphor screen using at least the stimulated emission photons; wherein the storage phosphor screen is further configured to emit a plurality of prompt emission photons upon irradiation, and wherein the 2D imager is further configured to receive the prompt emission photons from the storage phosphor screen ; and a dichroic filter positioned between the illumination source and the storage phosphor screen and configured to pass stimulating illumination from the illumination source to the storage phosphor screen and to reflect the stimulated emission photons from the storage phosphor screen, wherein the 2D imager is further configured to receive the stimulated emission photons reflected by the dichroic filter; wherein the CR system is configured as a front lit CR system.
Printing machine comprising a doctor blade , a drive system for urging the doctor blade against a printing cylinder of the printing machine , a sensor configured for sensing a force with which the doctor blade is urged against the substantially static printing cylinder , i.e. that the printing cylinder is moving in a radial direction, but not substantially in a lateral direction, and a mechanical locking element configured for locking the drive system in its operating position, wherein the doctor blade is a chamber doctor blade, wherein the printing machine comprises a control unit , which is connected to the drive system , the mechanical locking element and the sensor , wherein the control unit has a storage module for storing sensor values received from the sensor , and wherein the control unit comprises an analysis module configured to analyze changes in the sensor values in dependence of time and/or frequency. wherein the doctor blade is a chamber doctor blade, wherein the printing machine comprises a control unit , which is connected to the drive system , the mechanical locking element and the sensor , wherein the control unit has a storage module for storing sensor values received from the sensor , and wherein the control unit comprises an analysis module configured to analyze changes in the sensor values in dependence of time and/or frequency.
A remote operation system comprising: a working machine including an actuation mechanism and an imaging device which images environment including at least a part of the actuation mechanism; and a first remote operation apparatus and a second remote operation apparatus each including wireless communication equipment, an image output device which displays an environmental image corresponding to captured image data acquired by the imaging device of the working machine and an operation mechanism configured to perform a remote operation of the working machine, wherein the first remote operation apparatus comprises a sight line detector which detects a sight line of an operator, and a first client control device which transmits, to the wireless communication equipment, sight line detection data corresponding to the sight line of the operator which is detected by the sight line detector, and the second remote operation apparatus comprises a second client control device which displays, in the image output device, a designated image region as an image region spreading with reference to the sight line of the operator corresponding to the sight line detection data received by the wireless communication equipment in the environmental image, in a form different from a form of an image region around the designated image region. a working machine including an actuation mechanism and an imaging device which images environment including at least a part of the actuation mechanism; and a first remote operation apparatus and a second remote operation apparatus each including wireless communication equipment, an image output device which displays an environmental image corresponding to captured image data acquired by the imaging device of the working machine and an operation mechanism configured to perform a remote operation of the working machine, wherein the first remote operation apparatus comprises a sight line detector which detects a sight line of an operator, and a first client control device which transmits, to the wireless communication equipment, sight line detection data corresponding to the sight line of the operator which is detected by the sight line detector, and the second remote operation apparatus comprises a second client control device which displays, in the image output device, a designated image region as an image region spreading with reference to the sight line of the operator corresponding to the sight line detection data received by the wireless communication equipment in the environmental image, in a form different from a form of an image region around the designated image region.
A system for a vascular medical device retrieval, the system comprising: an elongate sleeve, and an elongate shaft received within the sleeve, the shaft having a flexible distal extension , the extension folded-back inwardly at a distal opening to form a flap and a more proximal opening ; wherein the proximal opening is sized to receive and pass an enlarged end of the medical device therethrough, characterized in that the system is adapted so the enlarged end of the medical device is secured in a pocket within the distal extension when the sleeve is advanced over the distal extension, and wherein the system is adapted for reversing the flap from being positioned inwardly to positioned outwardly for releasing the enlarged end of the medical device , wherein the adaptation for reversing the flap is a pusher received within a lumen of the shaft . an elongate sleeve, and an elongate shaft received within the sleeve, the shaft having a flexible distal extension , the extension folded-back inwardly at a distal opening to form a flap and a more proximal opening ; wherein the proximal opening is sized to receive and pass an enlarged end of the medical device therethrough, characterized in that the system is adapted so the enlarged end of the medical device is secured in a pocket within the distal extension when the sleeve is advanced over the distal extension, and wherein the system is adapted for reversing the flap from being positioned inwardly to positioned outwardly for releasing the enlarged end of the medical device , wherein the adaptation for reversing the flap is a pusher received within a lumen of the shaft .
An electronic device, comprising: a first near-field communications loop antenna ; a second near-field communications loop antenna ; near-field communications circuitry that wirelessly communicates using the first and second near-field communications loop antennas; and an antenna ground ; characterized by: a first non-near-field communications antenna , having a first inverted-F antenna resonating element and an antenna feed , wherein the first near-field communications loop antenna includes a portion of the first inverted-F antenna resonating element and a portion of the antenna ground, the first near-field communications loop antenna extends around the antenna feed, the second near-field communications loop antenna includes a portion of the antenna ground, and the antenna ground is interposed between the first near-field communications loop antenna and the second near-field communications loop antenna. a first near-field communications loop antenna ; a second near-field communications loop antenna ; near-field communications circuitry that wirelessly communicates using the first and second near-field communications loop antennas; and an antenna ground ; characterized by: a first non-near-field communications antenna , having a first inverted-F antenna resonating element and an antenna feed , wherein the first near-field communications loop antenna includes a portion of the first inverted-F antenna resonating element and a portion of the antenna ground, the first near-field communications loop antenna extends around the antenna feed, the second near-field communications loop antenna includes a portion of the antenna ground, and the antenna ground is interposed between the first near-field communications loop antenna and the second near-field communications loop antenna.
An ex vivo method of producing a therapeutic reagent comprising human immune cells, which express a Chimeric Antigen Receptor, that may be depleted in-vivo as part of an cell therapy treatment, said method comprising: (a) Providing human immune cells; (b) Inducing specific drug hypersensitivity into said human immune cells by selectively inactivating at least one gene, said gene being directly or indirectly involved in the metabolization, elimination or detoxification of said specific drug, (c) Optionally assaying the hypersensitivity of the human immune cells engineered in step b) to said drug; (d) Culturing the engineered immune cells obtained in step b); wherein the human immune cells are further engineered to express a Chimeric Antigen Receptor. (a) Providing human immune cells; (b) Inducing specific drug hypersensitivity into said human immune cells by selectively inactivating at least one gene, said gene being directly or indirectly involved in the metabolization, elimination or detoxification of said specific drug, (c) Optionally assaying the hypersensitivity of the human immune cells engineered in step b) to said drug; (d) Culturing the engineered immune cells obtained in step b);
A multi-system integrated antenna, comprising: a reflective plate having an upper end and a lower end located below the upper end; a first antenna array and a base station antenna array which are both disposed on the reflective plate ; the first antenna array is located at the lower end of the reflective plate , and comprises multiple first antenna subarrays, each of the first antenna subarrays (11-14) being composed of a plurality of first antenna array elements; the base station antenna array comprises a plurality of first base station antenna array elements and a plurality of second base station antenna array elements , wherein the plurality of first base station antenna array elements are located at the upper end of the reflective plate , and all of the first antenna array elements are located completely below each of the first base station antenna array elements , and the second base station antenna array elements are located at the lower end of the reflective plate and embedded in gaps of the plurality of first antenna array elements, and enclose first antenna array elements of two adjacent first antenna subarrays therein, wherein the second base station antenna array elements and the first base station antenna array elements have the same radiation structure. the first antenna array is located at the lower end of the reflective plate , and comprises multiple first antenna subarrays, each of the first antenna subarrays (11-14) being composed of a plurality of first antenna array elements; the base station antenna array comprises a plurality of first base station antenna array elements and a plurality of second base station antenna array elements , wherein the plurality of first base station antenna array elements are located at the upper end of the reflective plate , and all of the first antenna array elements are located completely below each of the first base station antenna array elements , and the second base station antenna array elements are located at the lower end of the reflective plate and embedded in gaps of the plurality of first antenna array elements, and enclose first antenna array elements of two adjacent first antenna subarrays therein, wherein the second base station antenna array elements and the first base station antenna array elements have the same radiation structure.
A communication apparatus, comprising: a data processor that processes transmit/receive frames; and a communication unit that transmits and receives frames; wherein the data processor adds reverse direction permission information, which indicates that reverse direction frame transmission is permitted, to individual frames in a plurality of frames to be sent at the same time, and the communication unit multiplexes and transmits the plurality of frames at the same time, and also receives respective frames obeying the reverse direction permission information from respective communication apparatus that received the plurality of frames, characterized in that the data processor specifies, with the reverse direction permission information, a common frame length for padding a data part of frames sent in the reverse direction which do not satisfy the common frame length, and a transmit start time for the frames sent in the reverse direction. a data processor that processes transmit/receive frames; and a communication unit that transmits and receives frames; wherein the data processor adds reverse direction permission information, which indicates that reverse direction frame transmission is permitted, to individual frames in a plurality of frames to be sent at the same time, and the communication unit multiplexes and transmits the plurality of frames at the same time, and also receives respective frames obeying the reverse direction permission information from respective communication apparatus that received the plurality of frames, characterized in that the data processor specifies, with the reverse direction permission information, a common frame length for padding a data part of frames sent in the reverse direction which do not satisfy the common frame length, and a transmit start time for the frames sent in the reverse direction.
A grain oriented electrical steel sheet, comprising: a steel sheet; a metal coating containing metal element and disposed on the steel sheet; a coating layer A that is a ceramic coating containing an oxide in an amount of less than 30 mass% and disposed on the metal coating; and a coating layer B that is an insulation tension coating containing an oxide and disposed on the coating layer A, wherein the metal coating has a thickness of 1.0 to 10.0 nm, and wherein the metal element has an atomic radius rate of 10% or more, the atomic radius rate being represented by Formula : R Fe − R A / R Fe × 100 where R Fe denotes an atomic radius of iron, and R A denotes an atomic radius of the metal element, wherein the amount of the oxide in the coating layer A is measured with X-ray fluorescence using a reference sheet having a known composition, wherein a content of the metal element in the metal coating is not less than 95 mass%, wherein the metal element is at least one selected from the group consisting of Y, Zr, Nb, Mo, Hf, Ta and W, wherein the thickness of the metal coating, the thickness of the coating layer A, the thickness of the coating layer B are measured using the methods described in the description. a steel sheet; a metal coating containing metal element and disposed on the steel sheet; a coating layer A that is a ceramic coating containing an oxide in an amount of less than 30 mass% and disposed on the metal coating; and a coating layer B that is an insulation tension coating containing an oxide and disposed on the coating layer A, wherein the metal coating has a thickness of 1.0 to 10.0 nm, and wherein the metal element has an atomic radius rate of 10% or more, the atomic radius rate being represented by Formula : R Fe − R A / R Fe × 100 where R Fe denotes an atomic radius of iron, and R A denotes an atomic radius of the metal element, wherein the amount of the oxide in the coating layer A is measured with X-ray fluorescence using a reference sheet having a known composition, wherein a content of the metal element in the metal coating is not less than 95 mass%, wherein the metal element is at least one selected from the group consisting of Y, Zr, Nb, Mo, Hf, Ta and W, wherein the thickness of the metal coating, the thickness of the coating layer A, the thickness of the coating layer B are measured using the methods described in the description.
An article comprising a substrate and extending from the surface(s) thereof grafted polyethyleneimine ligand groups forming a ligand functionalized substrate, wherein the polyethyleneimine ligand groups are one or more of the formula: or or or wherein "∼" is a divalent linking group grafted to the surface of the substrate and the polyethyleneimine ligand group, x may be zero and y is at least 1, and x + y is 2 to 2000; and grafted quaternary ammonium groups extending from the surface(s) of the substrate. "∼" is a divalent linking group grafted to the surface of the substrate and the polyethyleneimine ligand group, x may be zero and y is at least 1, and x + y is 2 to 2000; and grafted quaternary ammonium groups extending from the surface(s) of the substrate.
A wrap removal assembly for removing wrap material disposed about a circumference of a bale of crop material, the wrap removal assembly comprising: an elongated support member extending between a first end and a second end along a central longitudinal axis , and including an exterior surface ; said wrap removal assembly being characterised in that it further comprises a snagging wire at least partially disposed adjacent the exterior surface of the elongated support member ; wherein the snagging wire includes an active material changeable between a first shape and a second shape in response to a control signal, wherein the snagging wire presents at least one catch spaced outward and away from the exterior surface relative to the central longitudinal axis when disposed in the first shape , configured to snag the wrap material and gather the wrap materia around the elongated support member , and wherein the snagging wire is positioned substantially flat against the exterior surface of the elongated support member when disposed in the second shape , configured to release the wrap material and allow removal of the wrap material from the elongated support member . an elongated support member extending between a first end and a second end along a central longitudinal axis , and including an exterior surface ; said wrap removal assembly being characterised in that it further comprises a snagging wire at least partially disposed adjacent the exterior surface of the elongated support member ; wherein the snagging wire includes an active material changeable between a first shape and a second shape in response to a control signal, wherein the snagging wire presents at least one catch spaced outward and away from the exterior surface relative to the central longitudinal axis when disposed in the first shape , configured to snag the wrap material and gather the wrap materia around the elongated support member , and wherein the snagging wire is positioned substantially flat against the exterior surface of the elongated support member when disposed in the second shape , configured to release the wrap material and allow removal of the wrap material from the elongated support member .