mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, UE, comprising: a processor and a non-transitory computer-readable medium storing programming for execution by the processor, the programming comprising the following instructions for performing a method for transmitting channel state information: • selecting (step 206) a first group of beams from a codebook of beams, the first group of beams having a predefined sequence; and • transmitting (step 210) a first group index to a base station, BS, the first group index uniquely identifying the first group of beams selected from the codebook of beams, a first number of bits representing the first group of beams being equal to ceiling log 2 N M, N being a number of codewords in the codebook of beams and M being a number of beams in the first group of beams. • selecting (step 206) a first group of beams from a codebook of beams, the first group of beams having a predefined sequence; and • transmitting (step 210) a first group index to a base station, BS, the first group index uniquely identifying the first group of beams selected from the codebook of beams, a first number of bits representing the first group of beams being equal to ceiling log 2 N M, N being a number of codewords in the codebook of beams and M being a number of beams in the first group of beams.
A vapor vent assembly comprising: a hinge pin bracket with an elongate float guide member adjacent one end and a spring retention member adjacent an opposite end with a through opening and with a pair of laterally spaced support arms having snap retention features between the ends; a float slidably disposed on the float guide member; a spring having opposite ends with one end being retained by the spring retention member on the hinge pin bracket; a valve needle; and a float bracket having a spring retention member adjacent one end configured to retain another end of the spring and a float retention member adjacent an opposite end configured to retain the float in an assembled state and to operably support the valve needle for opening and closing the through passage and having a locking member extending transversely between the spring retention member and the float retention member, the locking member being configured for locked, snapping engagement with the snap retention features on the hinge pin bracket to maintain the assembly in an assembled state. a hinge pin bracket with an elongate float guide member adjacent one end and a spring retention member adjacent an opposite end with a through opening and with a pair of laterally spaced support arms having snap retention features between the ends; a float slidably disposed on the float guide member; a spring having opposite ends with one end being retained by the spring retention member on the hinge pin bracket; a valve needle; and a float bracket having a spring retention member adjacent one end configured to retain another end of the spring and a float retention member adjacent an opposite end configured to retain the float in an assembled state and to operably support the valve needle for opening and closing the through passage and having a locking member extending transversely between the spring retention member and the float retention member, the locking member being configured for locked, snapping engagement with the snap retention features on the hinge pin bracket to maintain the assembly in an assembled state.
Method for producing moulded hollow bodies from elastomeric material, wherein the method has at least the following working steps, specifically a) pushing a prefabricated blank onto a mandrel, wherein the mandrel has at least one region with a wall that is designed to be air-permeable, and the mandrel has at least one air chamber which is operatively connected to the at least one region with an air-permeable wall; b) incorporating the mandrel with the blank pushed onto the former into an autoclave known per se; c 1) impinging the autoclave with pressure and temperature, wherein air enclosed between the blank and the mandrel is forced through the regions with an air-permeable wall into the respective air chamber, the blanks being vulcanized in the process; d) destressing the autoclave and cooling; e) retrieving the mandrels with completely vulcanized and moulded hollow bodies; f 2) removing the hollow bodies from the mandrels, characterized in that at least one valve which permits passage of air from the outside into the interior of the corresponding air chamber and from the corresponding air chamber to the outside is disposed in the at least one region with an air-permeable wall. a) pushing a prefabricated blank onto a mandrel, wherein the mandrel has at least one region with a wall that is designed to be air-permeable, and the mandrel has at least one air chamber which is operatively connected to the at least one region with an air-permeable wall; b) incorporating the mandrel with the blank pushed onto the former into an autoclave known per se; c 1) impinging the autoclave with pressure and temperature, wherein air enclosed between the blank and the mandrel is forced through the regions with an air-permeable wall into the respective air chamber, the blanks being vulcanized in the process; d) destressing the autoclave and cooling; e) retrieving the mandrels with completely vulcanized and moulded hollow bodies; f 2) removing the hollow bodies from the mandrels, characterized in that at least one valve which permits passage of air from the outside into the interior of the corresponding air chamber and from the corresponding air chamber to the outside is disposed in the at least one region with an air-permeable wall.
A motor function analysis system adapted for analyzing a motor function of a subject, comprising: a display unit adapted for displaying image information including a moving target image and a cursor image for tracking said target image; a moving unit adapted to be used by the subject to move the cursor image; and an analyzer adapted for detecting the tracking status of the target image tracked by the cursor image and analyzing the frequency of the movement components contained in the tracking status, characterized in that the analyzer is adapted to separate a first frequency domain relating to a predicted movement component, a second frequency domain relating to a feedback movement component, which is higher than the first frequency domain, and a third frequency domain relating to a disease-induced movement component, which is higher than the second frequency domain, from the frequency of movement components, and wherein the analyzer is adapted to determine the ratio (S F3 /S F1) of the quantity of the disease-induced movement component obtained from an integrated value (S F3) of the third frequency domain and the quantity of the predicted movement component obtained from an integrated value (S F1) of the first frequency domain. a display unit adapted for displaying image information including a moving target image and a cursor image for tracking said target image; a moving unit adapted to be used by the subject to move the cursor image; and an analyzer adapted for detecting the tracking status of the target image tracked by the cursor image and analyzing the frequency of the movement components contained in the tracking status, characterized in that the analyzer is adapted to separate a first frequency domain relating to a predicted movement component, a second frequency domain relating to a feedback movement component, which is higher than the first frequency domain, and a third frequency domain relating to a disease-induced movement component, which is higher than the second frequency domain, from the frequency of movement components, and wherein the analyzer is adapted to determine the ratio (S F3 /S F1) of the quantity of the disease-induced movement component obtained from an integrated value (S F3) of the third frequency domain and the quantity of the predicted movement component obtained from an integrated value (S F1) of the first frequency domain.
A control module (30A, 130, BT01, 330) for a solid state lighting device (10A, 110, 200, 220, 240, 260, 280, 310, 400) that includes a plurality of groups of solid state light emitters (20A, 161-165, 320, G1-G5), wherein each group of solid state light emitters (20A, 161-165, 320, G1-G5) of the plurality of groups of solid state light emitters (20A, 161-165, 320, G1-G5) is independently controllable and is arranged to generate emissions comprising a dominant wavelength that differs from a dominant wavelength of emissions generated by each other group of solid state light emitters (20A, 161-165, 320, G1-G5), and emissions generated by each group of solid state light emitters (20A, 161-165, 320, G1-G5) are arranged to be combined to produce aggregate emissions of the lighting device (10A, 110, 200, 220, 240, 260, 280, 310, 400), the control module (30A, 130, BT01, 330) comprising: a memory (128, 131) storing at least one operating instruction set; and at least one processor (30A, 130, BT01, 330) configured to utilize the at least one operating instruction set to automatically adjust at different hours of a calendar day (a) luminous flux of the aggregate emissions and (b) at least one of correlated color temperature or color point of the aggregate emissions, responsive to at least one of (i) time or (ii) at least one signal indicative of an environmental condition; wherein the at least one processor (30A, 130, BT01, 330) is further configured to utilize the at least one operating instruction set to automatically adjust at different hours of a calendar day at least one of (c) melatonin suppressing milliwatts per hundred lumens of the aggregate emissions or (d) relative gamut area (Q g) of the aggregate emissions, for a selected color point or correlated color temperature of the aggregated emissions. a memory (128, 131) storing at least one operating instruction set; and at least one processor (30A, 130, BT01, 330) configured to utilize the at least one operating instruction set to automatically adjust at different hours of a calendar day (a) luminous flux of the aggregate emissions and (b) at least one of correlated color temperature or color point of the aggregate emissions, responsive to at least one of (i) time or (ii) at least one signal indicative of an environmental condition; wherein the at least one processor (30A, 130, BT01, 330) is further configured to utilize the at least one operating instruction set to automatically adjust at different hours of a calendar day at least one of (c) melatonin suppressing milliwatts per hundred lumens of the aggregate emissions or (d) relative gamut area (Q g) of the aggregate emissions, for a selected color point or correlated color temperature of the aggregated emissions.
Lashing point, intended for arrangement on a loading surface of a transport vehicle, wherein the lashing point can be coupled to a hoisting or lashing means and comprises an eyelet body and a cassette, the eyelet body being mounted for relative movement in the cassette and capable of being pulled out from a rest position located in the cassette into an assembly position, the cassette having a guide slot in laterally arranged slotted plates and the eyelet body having laterally projecting arms which engage in the guide slot, characterised in that a rear side of the eyelet body, the rear side of the eyelet body being oriented towards the loading surface in the assembly position, has an indentation in such a way that, in the assembly position, the indentation rests in a form-fitting manner on an edge, or an extension of the cassette or of the loading surface engages in a form-fitting manner in the indentation, and in that the indentation is set back relative to the surface of the rear side surrounding it.
A molded plastic fiber optic adapter plate comprising: a molded plastic adapter back plate having a plurality of integrated fiber optic adapter subassemblies; a molded plastic adapter front plate having a corresponding plurality of integrated fiber optic adapter subassemblies; a first attachment mechanism adapted to align and attach the molded plastic adapter front plate to the molded plastic adapter back plate; and a second attachment mechanism adapted to attach the molded plastic fiber optic adapter plate to an enclosure, wherein the first attachment mechanism comprises a recessed face of the molded plastic adapter back plate that accepts a raised mating surface of the molded plastic adapter front plate; and characterized in that the first attachment mechanism further comprises structures consisting of a plurality of mating pins on the raised mating surface of the molded plastic adapter front plate and a plurality of corresponding holes in the recessed face of the molded plastic adapter back plate, wherein a hole of the plurality of corresponding holes accepts a mating pin of the plurality of mating pins. a molded plastic adapter back plate having a plurality of integrated fiber optic adapter subassemblies; a molded plastic adapter front plate having a corresponding plurality of integrated fiber optic adapter subassemblies; a first attachment mechanism adapted to align and attach the molded plastic adapter front plate to the molded plastic adapter back plate; and a second attachment mechanism adapted to attach the molded plastic fiber optic adapter plate to an enclosure, wherein the first attachment mechanism comprises a recessed face of the molded plastic adapter back plate that accepts a raised mating surface of the molded plastic adapter front plate; and characterized in that the first attachment mechanism further comprises structures consisting of a plurality of mating pins on the raised mating surface of the molded plastic adapter front plate and a plurality of corresponding holes in the recessed face of the molded plastic adapter back plate, wherein a hole of the plurality of corresponding holes accepts a mating pin of the plurality of mating pins.
A network adapter, wherein the network adapter comprises a processor and a hardware processing engine; the processor is configured to obtain a first input/output, I/O, command, wherein the first I/O command indicates to write first data stored in a local server into at least one peer server; the processor is further configured to send first indication information to the hardware processing engine, wherein the first indication information indicates the hardware processing engine to obtain the first data from the local server, and the first indication information comprises address information and length information; and the hardware processing engine is configured to: when the first data is obtained from the local server based on the address information and the length information, directly process the first data, and send the processed first data to the at least one peer server, wherein the first data is not stored in a memory of the network adapter. the processor is configured to obtain a first input/output, I/O, command, wherein the first I/O command indicates to write first data stored in a local server into at least one peer server; the processor is further configured to send first indication information to the hardware processing engine, wherein the first indication information indicates the hardware processing engine to obtain the first data from the local server, and the first indication information comprises address information and length information; and the hardware processing engine is configured to: when the first data is obtained from the local server based on the address information and the length information, directly process the first data, and send the processed first data to the at least one peer server, wherein the first data is not stored in a memory of the network adapter.
- An orienting device for orienting at least one object, comprising: - a fixed frame; - conveying means (8, 50, 51) defining a conveying surface (11, 52, 53) adapted to contact a bottom portion of said object and convey said object along a first direction; and - rotating means selectively actuatable for creating on said bottom portion a differential speed causing the rotation of said object about a first vertical axis transversal to said first direction; said rotating means comprising a contact element, which is either fixed or movable along said first direction with a differential speed relative to said conveying means (8, 50, 51); said contact element being selectively movable with respect to said conveying surface between: - a first configuration, in which it protrudes from said conveying surface along said first axis, so as to contact, in use, said bottom portion of said object and to cause the rotation of said object about said first axis; and - a second configuration, in which it is offset from said conveying surface along said first axis; characterized in that said contact element is free to oscillate around a second axis parallel to said first direction, and in that said contact element is hinged to said frame about at least one third axis (E, B), which is transversal to said first axis and to said second axis. - a fixed frame; - conveying means (8, 50, 51) defining a conveying surface (11, 52, 53) adapted to contact a bottom portion of said object and convey said object along a first direction; and - rotating means selectively actuatable for creating on said bottom portion a differential speed causing the rotation of said object about a first vertical axis transversal to said first direction; said rotating means comprising a contact element, which is either fixed or movable along said first direction with a differential speed relative to said conveying means (8, 50, 51); said contact element being selectively movable with respect to said conveying surface between: - a first configuration, in which it protrudes from said conveying surface along said first axis, so as to contact, in use, said bottom portion of said object and to cause the rotation of said object about said first axis; and - a second configuration, in which it is offset from said conveying surface along said first axis; - a first configuration, in which it protrudes from said conveying surface along said first axis, so as to contact, in use, said bottom portion of said object and to cause the rotation of said object about said first axis; and - a second configuration, in which it is offset from said conveying surface along said first axis; characterized in that said contact element is free to oscillate around a second axis parallel to said first direction, and in that said contact element is hinged to said frame about at least one third axis (E, B), which is transversal to said first axis and to said second axis.
A computer-implemented method for controlling an electronic device, the method comprising: receiving a signal through a light sensor of the electronic device; identifying with a processor of the electronic device whether the received signal originated from a first light emitter that is part of the electronic device and reflected off an object that has been moved by a user in front of the electronic device, or instead originated from a second light emitter that is part of a remote controller that is separate from the electronic device, wherein identifying the signal origination comprises determining a frequency of the received signal, and determining whether the frequency of the received signal matches (i) a first known frequency for the first light emitter that is part of the electronic device or (ii) a second known frequency for the second light emitter that is part of the remote controller; and controlling a function of the electronic device, the function selected based on whether the received signal is identified as originating from the first light emitter that is part of the electronic device or instead from the second light emitter that is part of the remote controller. receiving a signal through a light sensor of the electronic device; identifying with a processor of the electronic device whether the received signal originated from a first light emitter that is part of the electronic device and reflected off an object that has been moved by a user in front of the electronic device, or instead originated from a second light emitter that is part of a remote controller that is separate from the electronic device, wherein identifying the signal origination comprises determining a frequency of the received signal, and determining whether the frequency of the received signal matches (i) a first known frequency for the first light emitter that is part of the electronic device or (ii) a second known frequency for the second light emitter that is part of the remote controller; and controlling a function of the electronic device, the function selected based on whether the received signal is identified as originating from the first light emitter that is part of the electronic device or instead from the second light emitter that is part of the remote controller.
A bone regeneration product, comprising a scaffold and a mesenchymal stem cell formulation, wherein: the scaffold comprises at least one outer chamber and at least one inner chamber; the at least one outer chamber holds a stem cell mixture comprising dense bone regenerating stem cells (DBR-SCs); the at least one inner chamber holds a stem cell mixture comprising spongy bone regenerating stem cells (SBR-SCs); the DBR-SCs comprise cranial neural crest derived mesenchymal stem cells (CNCCs), dental pulp derived stem cells (DPSCs), or a mixture thereof; the SBR-SCs comprise bone marrow derived mesenchymal stem cells (BMMSCs); the concentration of the DBR-SCs of the stem cell mixture, which is held by the at least one outer chamber, is in the range of 60% to 100%; and the concentration of the SBR-SCs of the stem cell mixture, which is held by the at least one inner chamber, is in the range of 60% to 100%.. the scaffold comprises at least one outer chamber and at least one inner chamber; the at least one outer chamber holds a stem cell mixture comprising dense bone regenerating stem cells (DBR-SCs); the at least one inner chamber holds a stem cell mixture comprising spongy bone regenerating stem cells (SBR-SCs); the DBR-SCs comprise cranial neural crest derived mesenchymal stem cells (CNCCs), dental pulp derived stem cells (DPSCs), or a mixture thereof; the SBR-SCs comprise bone marrow derived mesenchymal stem cells (BMMSCs); the concentration of the DBR-SCs of the stem cell mixture, which is held by the at least one outer chamber, is in the range of 60% to 100%; and the concentration of the SBR-SCs of the stem cell mixture, which is held by the at least one inner chamber, is in the range of 60% to 100%..
A high-carbon steel tube having a composition consisting of, by mass: 0.25% to 0.60% carbon, 0.01% to 2.0% silicon, 0.2% to 3.0% manganese, 0.001% to 0.1% aluminum, 0.001% to 0.05% phosphorus, 0.0001% to 0.02% sulfur, 0.0010% to 0.0100% nitrogen, 0.0003% to 0.0050% boron, and 0.0001% to 0.0050% calcium, optionally at least one selected from 2.0% or less copper, 2.0% or less chromium, 2.0% or less molybdenum, 2.0% or less tungsten, 1.0% or less vanadium, 0.1% or less niobium, and 0.1% or less titanium, the balance being iron and incidental impurities, the high-carbon steel tube having a microstructure comprising a ferrite base phase, wherein the area fraction of ferrite is 50% or more, and cementite grains finely dispersed in the base phase, wherein the average grain size d of the cementite grains is 0.1 to less than 0.5 μm, and the average distance L between surfaces of adjacent cementite grains is 0.5 to 10 μm. 0.25% to 0.60% carbon, 0.01% to 2.0% silicon, 0.2% to 3.0% manganese, 0.001% to 0.1% aluminum, 0.001% to 0.05% phosphorus, 0.0001% to 0.02% sulfur, 0.0010% to 0.0100% nitrogen, 0.0003% to 0.0050% boron, and 0.0001% to 0.0050% calcium, 2.0% or less copper, 2.0% or less chromium, 2.0% or less molybdenum, 2.0% or less tungsten, 1.0% or less vanadium, 0.1% or less niobium, and 0.1% or less titanium,