mhurhangee/patent-ind-claim-en huggingface dataset:
Optical arrangement for being positioned in a beam path of a light microscope, having at least one first and one second optical assembly for providing structured illumination light from incident light , characterized in that the incident light is guidable via different beam paths to the various optical assemblies and onwards in the direction of a sample , wherein an adjustable deflection apparatus is present for selecting a beam path to be illuminated to a certain optical assembly , the light being selectably deflectable to one of the optical assemblies by means of said apparatus, in that , for providing structured illumination light : - the optical assemblies each have a grating or - a grating for generating structured illumination light is arranged in a common beam path upstream of the different beam paths to the various optical assemblies and the optical assemblies each have an image field rotator, wherein structured illumination light is provided in different orientations by means of the image field rotators, in that electronic control means are present and configured to illuminate exactly one beam path of the different beam paths to various optical assemblies at any one time, in that at least one first beam-combining mirror is present for guiding light coming from various optical assemblies into a common beam path in the direction of a sample , in that the first beam-combining mirror has reflecting regions , whereon only light from one of the two optical assemblies is incident, and in that the first beam-combining mirror has light-transmissive regions , whereon only light from the other one of the optical assemblies is incident. - the optical assemblies each have a grating or - a grating for generating structured illumination light is arranged in a common beam path upstream of the different beam paths to the various optical assemblies and the optical assemblies each have an image field rotator, wherein structured illumination light is provided in different orientations by means of the image field rotators,
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station via a higher layer signaling, a configuration of a long physical uplink control channel, PUCCH, format, the configuration including first information on a number of symbols for the long PUCCH format, second information enabling intra-slot frequency hopping for the long PUCCH format, and third information on a spreading code for the long PUCCH format; generating uplink control information to be transmitted on a PUCCH of the long PUCCH format; identifying N symbols in which the uplink control information is to be transmitted, based on the first information, wherein N is equal to or greater than 4 and equal to or smaller than 14; mapping the uplink control information and a demodulation reference signal, DMRS, for the uplink control information to the N symbols; and transmitting, to the base station on the PUCCH of the long PUCCH format, the uplink control information and the DMRS by applying the intra-slot frequency hopping based on the second information, wherein a number of symbols in a first hop is floor(N/2) and a number of symbols in a second hop is ceil(N/2), and wherein first orthogonal sequences identified based on the third information are applied to first uplink control information symbols in the first hop and first DMRS symbols in the first hop respectively, and second orthogonal sequences identified based on the third information are applied to second uplink control information symbols in the second hop and second DMRS symbols in the second hop respectively. receiving, from a base station via a higher layer signaling, a configuration of a long physical uplink control channel, PUCCH, format, the configuration including first information on a number of symbols for the long PUCCH format, second information enabling intra-slot frequency hopping for the long PUCCH format, and third information on a spreading code for the long PUCCH format; generating uplink control information to be transmitted on a PUCCH of the long PUCCH format; identifying N symbols in which the uplink control information is to be transmitted, based on the first information, wherein N is equal to or greater than 4 and equal to or smaller than 14; mapping the uplink control information and a demodulation reference signal, DMRS, for the uplink control information to the N symbols; and transmitting, to the base station on the PUCCH of the long PUCCH format, the uplink control information and the DMRS by applying the intra-slot frequency hopping based on the second information, wherein a number of symbols in a first hop is floor(N/2) and a number of symbols in a second hop is ceil(N/2), and wherein first orthogonal sequences identified based on the third information are applied to first uplink control information symbols in the first hop and first DMRS symbols in the first hop respectively, and second orthogonal sequences identified based on the third information are applied to second uplink control information symbols in the second hop and second DMRS symbols in the second hop respectively.
Articulator - semi-adjustable, arcon, comprising a lower and upper parts that could be detached from each other or interconnected with two mechanical joints, the lower part 21 consists of a base , over which a working plate is located, with an incisive platform assembled at the front of said base , and at the rear the base is immovably connected to a vertical body , wherein an horizontal axis with two joint heads is fixed to said vertical body , wherein two bodies of two joint cavities are adapted to said two joint heads of the horizontal axis, and said two bodies of the joint cavities are, connected in the middle with a plank , said plank is immovably connected to an upper vertical body , which is connected at its front to an upper horizontal shoulder , under which a magnetically connected working plate is located, an incisive pin is assembled at the front of the horizontal shoulder , so as to lean on the incisive platform , the upper horizontal shoulder is immovably connected to an elevator that is fixed at the front of the upper vertical body , wherein said elevator is able to move up and down, until propping up an upper working model and connecting to it, wherein the upper vertical body and the vertical body , are blocked and de-blocked, via an elbow , which ensures continuous inter-parallel location of the base and the upper horizontal shoulder during the process of operating the articulator. wherein the axis with the two joint heads could be extended and shortened, said movement of said axis with the two joint heads on the left and on the right being performed by an elastic element , inbuilt in said axis thus reproducing the immediate lateral shift in both mechanical joints, and this movement being reported at a scale , located in the middle of said axis at its rear, wherein the incisive platform , could rotate and its inclination blocked with a special screw and reported on a scale for the inclination of the incisive platform .
A surgical access port system adapted for performing surgical procedures at a natural orifice comprising: an outer ring , wherein the outer ring is configured to be disposed proximate the natural orifice of the patient; and a tubular body having a longitudinal axis, wherein the tubular body has a proximal end and a distal end, and wherein the proximal end of the tubular body is coupled to the outer ring , the surgical access port system further comprising an inflatable saddle-shaped balloon disposed around the tubular body , the saddle-shaped balloon comprising a continuous structure having a first peak, a low point, and a second peak, wherein the second peak is displaced from the first peak along the longitudinal axis of the tubular body with the low point disposed between the first peak and the second peak, wherein the saddle-shaped balloon tapers distally and inwardly from the first peak to the low point and distally and outwardly from the low point to the second peak, and wherein the saddle-shaped balloon is adapted to seat the natural orifice at the low point and to compress the tissue of the natural orifice between tapered surfaces of the inflatable saddle-shaped balloon associated with the first peak and the second peak upon inflation to thereby occlude the natural orifice. an outer ring , wherein the outer ring is configured to be disposed proximate the natural orifice of the patient; and a tubular body having a longitudinal axis, wherein the tubular body has a proximal end and a distal end, and wherein the proximal end of the tubular body is coupled to the outer ring , the surgical access port system further comprising an inflatable saddle-shaped balloon disposed around the tubular body , the saddle-shaped balloon comprising a continuous structure having a first peak, a low point, and a second peak, wherein the second peak is displaced from the first peak along the longitudinal axis of the tubular body with the low point disposed between the first peak and the second peak, wherein the saddle-shaped balloon tapers distally and inwardly from the first peak to the low point and distally and outwardly from the low point to the second peak, and wherein the saddle-shaped balloon is adapted to seat the natural orifice at the low point and to compress the tissue of the natural orifice between tapered surfaces of the inflatable saddle-shaped balloon associated with the first peak and the second peak upon inflation to thereby occlude the natural orifice.
A method for controlling a radio access network, performed by an active Wavelength Division Multiplexing, WDM, equipment, comprising transmitting a management request to a Radio Remote Unit, RRU, or Active Antenna Unit, AAU, via a passive wavelength division multiplexing and demultiplexing equipment, wherein the passive wavelength division multiplexing and demultiplexing equipment is connected with the active WDM equipment through an optical fiber; characterized by further comprising receiving a management request response corresponding to the management request from the RRU or AAU via the passive wavelength division multiplexing and demultiplexing equipment, the management request response carrying second status information, the second status information being used to indicate a status of a color optical module in the RRU or AAU, the RRU or AAU being provided with the color optical module, the color optical module being connected with one port of the passive wavelength division multiplexing and demultiplexing equipment, and the passive wavelength division multiplexing and demultiplexing equipment being configured to multiplex and transmit multiple wavelengths from different RRUs or AAUs; wherein the status of the color optical module comprises at least one of: driving voltage, driving current, transmitting optical power, or receiving optical power. transmitting a management request to a Radio Remote Unit, RRU, or Active Antenna Unit, AAU, via a passive wavelength division multiplexing and demultiplexing equipment, wherein the passive wavelength division multiplexing and demultiplexing equipment is connected with the active WDM equipment through an optical fiber; characterized by further comprising receiving a management request response corresponding to the management request from the RRU or AAU via the passive wavelength division multiplexing and demultiplexing equipment, the management request response carrying second status information, the second status information being used to indicate a status of a color optical module in the RRU or AAU, the RRU or AAU being provided with the color optical module, the color optical module being connected with one port of the passive wavelength division multiplexing and demultiplexing equipment, and the passive wavelength division multiplexing and demultiplexing equipment being configured to multiplex and transmit multiple wavelengths from different RRUs or AAUs; wherein the status of the color optical module comprises at least one of: driving voltage, driving current, transmitting optical power, or receiving optical power.
A crimping machine for crimping contact elements with an end portion of a conductor, for instance, a cable end, comprising a storage arrangement for the contact elements, a transport device for feeding the contact elements to a crimping head , and a centering device for the conductor, wherein at least two storages, preferably five storages, are provided to which a common transport unit is assigned for transporting a contact element from a transfer position to a crimping position, wherein the transport device has a shuttle for taking over the contact element being in the transfer position and for transporting it to the crimping head , characterized in that the shuttle has two grippers arranged in parallel, wherein one is gripping the contact element being in the transfer position and the second one is gripping a contact element to be crimped in a subsequent operation.
A fluid cooling system comprising: a volume of heat transfer fluid held in a first tank ; wherein the volume of heat transfer fluid has a surface area ; means for permitting or forcing a volume of air across the surface area ; characterised in that the volume of air causes the temperature of said heat transfer fluid in the first tank to be lowered to or maintained at approximately the required temperature by evaporative means and become a cooled fluid; wherein the cooled fluid is transferred from the first tank to a heat exchanger in a process or location ; and the cooled fluid is used to cool the location, by absorbing heat at the heat exchanger ; wherein the cooling system further comprises a second tank to which a return fluid from the process or location is transferred; and wherein the wet bulb temperature of the volume of air being approximately at or less than a required temperature of the heat transfer fluid sufficient to remove thermal energy from the process or location . means for permitting or forcing a volume of air across the surface area ; characterised in that the volume of air causes the temperature of said heat transfer fluid in the first tank to be lowered to or maintained at approximately the required temperature by evaporative means and become a cooled fluid; wherein the cooled fluid is transferred from the first tank to a heat exchanger in a process or location ; and the cooled fluid is used to cool the location, by absorbing heat at the heat exchanger ; wherein the cooling system further comprises a second tank to which a return fluid from the process or location is transferred; and wherein the wet bulb temperature of the volume of air being approximately at or less than a required temperature of the heat transfer fluid sufficient to remove thermal energy from the process or location .
An X-ray detection device, comprising: a first line sensor for detecting X-ray that is transmitted through the subject and generating first X-ray image data; a second line sensor arranged in parallel to the first line sensor with a dead zone region having a predetermined width sandwiched therebetween and for detecting X-ray that is transmitted through the subject and generating second X-ray image data, wherein the first line sensor detects X-ray in a first energy range and the second line sensor detects X-ray in a second energy range, one of these energy ranges being a low-energy range and the other being a high-energy range; and a timing control section for outputting first control pulses to the first line sensor and outputting second control pulses to the second line sensor , characterized in that : the predetermined width is narrower than a sensing width of the first line sensor and a sensing width of the second line sensor, and the timing control section is configured to control so as to delay detection timing of at least the second line sensor with respect to detection timing of the first line sensor so that first X-ray image data and second X-ray image data mutually correspond. a first line sensor for detecting X-ray that is transmitted through the subject and generating first X-ray image data; a second line sensor arranged in parallel to the first line sensor with a dead zone region having a predetermined width sandwiched therebetween and for detecting X-ray that is transmitted through the subject and generating second X-ray image data, wherein the first line sensor detects X-ray in a first energy range and the second line sensor detects X-ray in a second energy range, one of these energy ranges being a low-energy range and the other being a high-energy range; and a timing control section for outputting first control pulses to the first line sensor and outputting second control pulses to the second line sensor , characterized in that : the predetermined width is narrower than a sensing width of the first line sensor and a sensing width of the second line sensor, and the timing control section is configured to control so as to delay detection timing of at least the second line sensor with respect to detection timing of the first line sensor so that first X-ray image data and second X-ray image data mutually correspond. the predetermined width is narrower than a sensing width of the first line sensor and a sensing width of the second line sensor, and the timing control section is configured to control so as to delay detection timing of at least the second line sensor with respect to detection timing of the first line sensor so that first X-ray image data and second X-ray image data mutually correspond.
A method of manufacturing a positive electrode active material, comprising: (A) preparing a positive electrode active material precursor which includes a core portion including randomly aggregated primary particles and a shell portion surrounding the core portion and formed of primary particles oriented in a direction from a particle center to the outside and in which a ratio of a crystal grain size in the plane to a crystal grain size in the plane of the primary particles forming the shell portion is 3 or more; and (B) mixing the positive electrode active material precursor with a lithium-containing raw material and firing the mixture, and thus preparing a lithium transition metal oxide, wherein the lithium transition metal oxide has an average particle diameter (D 50 ) that is 0.01% to 20% reduced as compared to an average particle diameter (D 50 ) of the positive electrode active material precursor. (A) preparing a positive electrode active material precursor which includes a core portion including randomly aggregated primary particles and a shell portion surrounding the core portion and formed of primary particles oriented in a direction from a particle center to the outside and in which a ratio of a crystal grain size in the plane to a crystal grain size in the plane of the primary particles forming the shell portion is 3 or more; and (B) mixing the positive electrode active material precursor with a lithium-containing raw material and firing the mixture, and thus preparing a lithium transition metal oxide, wherein the lithium transition metal oxide has an average particle diameter (D 50 ) that is 0.01% to 20% reduced as compared to an average particle diameter (D 50 ) of the positive electrode active material precursor.
System for cleaning an object, such as a heat exchanger comprising a bundle of feed-through tubes extending between two end plates, wherein the system comprises a connection body for connecting the system to an object, a holder for holding a cleaning device , a supporting arm for supporting the holder and a moving system for moving the holder with respect to the connection body in a first direction and a second direction at least having a component perpendicular to the first direction, wherein the moving system comprises a rotation motor arranged to rotate the supporting arm with respect to the connection body , characterized in that the moving system further comprises a linear motor arranged to move the holder in a plane perpendicular to the rotation axis R of the rotation motor .
A method of managing power load in a data center, the method comprising: determining that a utility power source for said data center has failed; changing said data center to receive power from an Uninterruptable Power Supply (UPS) instead of from said utility power source; while said data center is operating on said Uninterruptable Power Supply (UPS), using a power management policy to throttle servers in said data center to a power level below a collective capacity of a plurality of backup generators at said data center, said collective capacity being less than a maximum amount of power drawn by equipment in said data center; after said servers have been throttled, changing power for said data center from said Uninterruptable Power Supply (UPS) to said generators; after said changing of power for said data center to said generators, determining that said utility power source is available; changing said data center back to said utility power source from said generators; and ceasing to throttle said servers, characterized in that the method further comprises: increasing the load of said servers gradually while said generators are brought online. determining that a utility power source for said data center has failed; changing said data center to receive power from an Uninterruptable Power Supply (UPS) instead of from said utility power source; while said data center is operating on said Uninterruptable Power Supply (UPS), using a power management policy to throttle servers in said data center to a power level below a collective capacity of a plurality of backup generators at said data center, said collective capacity being less than a maximum amount of power drawn by equipment in said data center; after said servers have been throttled, changing power for said data center from said Uninterruptable Power Supply (UPS) to said generators; after said changing of power for said data center to said generators, determining that said utility power source is available; changing said data center back to said utility power source from said generators; and ceasing to throttle said servers, characterized in that the method further comprises: increasing the load of said servers gradually while said generators are brought online.
A martensitic stainless steel sheet comprising a chemical composition containing, in mass%, C: 0.035 % to 0.090 %, Si: 0.01 % to 1.0 %, Mn: 0.01 % to 0.90 %, P: 0.050 % or less, S: 0.050 % or less, Cr: 10.0 % to 14.0 %, Ni: 0.01 % to 0.40 %, Al: 0.001 % to 0.50 %, V: 0.05 % to 0.50 %, and N: 0.050 % to 0.20 %, optionally, in mass%, one or more selected from the group consisting of Mo: 0.01 % to 0.50 %, Cu: 0.01 % to 0.15 %, Co: 0.01 % to 0.50 %. Ti: 0.01 % to 0.15 %, Nb: 0.01 % to 0.15 %, Zr: 0.01 % to 0.15 %. B: 0.0002 % to 0.0100 %, Ca: 0.0002 % to 0.0100 %, and Mg: 0.0002 % to 0.0100 %, with the balance being Fe and inevitable impurities, wherein a content of C and a content of N in the chemical composition satisfy the following Formulas and : 0.10 % ≤ C % + N % ≤ 0.29 % N % ≥ C % where C% and N% respectively denote the content of C and the content of N in steel in mass%, the number of precipitates with a major axis length of 200 nm or more in a surface layer of the martensitic stainless steel sheet is 25 or less per 100 μm 2 , and the martensitic stainless steel sheet has a tensile strength of 1300 MPa or more, a proof stress of 1100 MPa or more, and an elongation of 8.0 % or more, wherein the microstructure of the martensitic stainless steel sheet includes martensite phase of 80 % or more in volume fraction with respect to the whole microstructure, and ferrite phase and/or retained austenite phase as residual microstructures, the microstructure is measured according to the description, and the surface layer is the range from the surface of the steel sheet to a depth of 0.05 mm in the sheet thickness direction.