mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus configured to be employed in a base station comprising: processing circuitry configured to: process a user equipment, UE, capability information that indicates a support for a cell reference signal, CRS, muting; provide CRS muting configuration parameters via a system information block, SIB, or a UE-dedicated radio resource control, RRC, signaling, based on the UE capability information; wherein, based on the CRS muting configuration parameters, muting is generated only outside of: a narrow band, NB, or a wide band, WB, plus / minus X physical resource blocks, PRBs, wherein X is a non-negative integer, and a central six PRBs plus/minus Y PRBs on each side of the central six PRBs, wherein Y is a non-negative integer; and a radio frequency, RF, interface, configured to provide, to RF circuitry , data for transmission related to the CRS muting. processing circuitry configured to: process a user equipment, UE, capability information that indicates a support for a cell reference signal, CRS, muting; provide CRS muting configuration parameters via a system information block, SIB, or a UE-dedicated radio resource control, RRC, signaling, based on the UE capability information; wherein, based on the CRS muting configuration parameters, muting is generated only outside of: a narrow band, NB, or a wide band, WB, plus / minus X physical resource blocks, PRBs, wherein X is a non-negative integer, and a central six PRBs plus/minus Y PRBs on each side of the central six PRBs, wherein Y is a non-negative integer; and process a user equipment, UE, capability information that indicates a support for a cell reference signal, CRS, muting; provide CRS muting configuration parameters via a system information block, SIB, or a UE-dedicated radio resource control, RRC, signaling, based on the UE capability information; wherein, based on the CRS muting configuration parameters, muting is generated only outside of: a narrow band, NB, or a wide band, WB, plus / minus X physical resource blocks, PRBs, wherein X is a non-negative integer, and a central six PRBs plus/minus Y PRBs on each side of the central six PRBs, wherein Y is a non-negative integer; and a radio frequency, RF, interface, configured to provide, to RF circuitry , data for transmission related to the CRS muting.
A timepiece member including a first axis (A10) and a first threading having a pitch (p) and intended to cooperate with a second threading provided on a second timepiece member , the first threading being configured so that a zone (C) of contact between the first threading and the second threading extends over less than 50% of the height (h) of the threads of the second threading or configured so that the zone (C) of contact between the first threading and the second threading extends over less than 0.3 times the pitch (p), the extent (e) of the contact zone being measured radially relative to the first axis (A10) from the root of the threads of the first threading.
A bearing system comprising: a bearing housing formed to include a space therein, a bearing coupled to the bearing housing and located in the space , the bearing being adapted to support a component rotating about a central axis relative to the bearing housing , and a side-jet injector configured to provide lubrication to the bearing during rotation of the component and located in spaced-apart relation to the bearing and in a fixed position relative to the bearing and the bearing housing and configured to inject a stream of lubrication from an outlet formed in the side-jet injector in an axial direction toward a plurality of internal rotating components , characterized in that the bearing housing includes a first wall section located at a first radial distance from the central axis and a second wall section located at a relatively greater second radial distance from the central axis , the second wall section is located circumferentially downstream of the first wall section to form a pocket , and the first and second wall sections cooperate to establish a zone of stagnant fluid in a portion of the pocket radially between the component and the second wall section and circumferentially downstream of the first wall section , and the outlet of the side-jet injector is recessed in the pocket and is located circumferentially downstream of the first wall section and radially between an outer surface of the component and the second wall section such that effects to the stream from a windage established between the first wall section and the component is minimized. a bearing housing formed to include a space therein, a bearing coupled to the bearing housing and located in the space , the bearing being adapted to support a component rotating about a central axis relative to the bearing housing , and a side-jet injector configured to provide lubrication to the bearing during rotation of the component and located in spaced-apart relation to the bearing and in a fixed position relative to the bearing and the bearing housing and configured to inject a stream of lubrication from an outlet formed in the side-jet injector in an axial direction toward a plurality of internal rotating components , characterized in that the bearing housing includes a first wall section located at a first radial distance from the central axis and a second wall section located at a relatively greater second radial distance from the central axis , the second wall section is located circumferentially downstream of the first wall section to form a pocket , and the first and second wall sections cooperate to establish a zone of stagnant fluid in a portion of the pocket radially between the component and the second wall section and circumferentially downstream of the first wall section , and the outlet of the side-jet injector is recessed in the pocket and is located circumferentially downstream of the first wall section and radially between an outer surface of the component and the second wall section such that effects to the stream from a windage established between the first wall section and the component is minimized.
Method of on-the-fly generation of a sequence of pseudo-random digital codes, comprising the steps of: generating a first set of values from a first set of voltages (V); generating, by successive iterations, a chain of numbers, called seed numbers, from an initial pseudo-random seed number (W0) by application of a first function (f; 24, 26; 28, 24, 26) from one seed number to the next seed number; applying a second function to each seed number in the chain to obtain a same number of position codes (CPos(j)), the second function comprising at least a first permutation (PERM) followed by a bijective function (BIJ) and being performed in wired logic; generating a second set of voltages (Vp) from said digital codes (CPos), said codes representing the respective positions (j) of the values of the first set of voltages in the second set of voltages and enabling the performing, by a switching circuit , of a second permutation of the first set of voltage values (Vi) in the second set of voltage values (Vp). generating a first set of values from a first set of voltages (V); generating, by successive iterations, a chain of numbers, called seed numbers, from an initial pseudo-random seed number (W0) by application of a first function (f; 24, 26; 28, 24, 26) from one seed number to the next seed number; applying a second function to each seed number in the chain to obtain a same number of position codes (CPos(j)), the second function comprising at least a first permutation (PERM) followed by a bijective function (BIJ) and being performed in wired logic; generating a second set of voltages (Vp) from said digital codes (CPos), said codes representing the respective positions (j) of the values of the first set of voltages in the second set of voltages and enabling the performing, by a switching circuit , of a second permutation of the first set of voltage values (Vi) in the second set of voltage values (Vp).
A method comprising: transmitting , by an access point, AP having full duplex,FD capabilities, a trigger frame to cause at least a first station, STA to initiate transmission of an uplink, UL, reference frame to the AP, the trigger frame further causing at least one second STA to obtain a signal strength measurement during transmission of the UL reference frame; and receiving , by the AP from the at least one second STA, a reporting frame containing information about the signal strength measurement; characterised in that the method further comprising: based on the information contained in the reporting frame, selecting an UL transmitting STA for a FD UL transmission during a DL transmission; and storing, at the AP, potential interference information determined from the information contained in the reporting frame, the potential interference information indicating: for a given DL receiving STA, any acceptable UL transmitting STA for a FD UL transmission during a DL transmission to the given DL receiving STA; wherein selecting the UL transmitting STA is performed using the stored potential interference information. transmitting , by an access point, AP having full duplex,FD capabilities, a trigger frame to cause at least a first station, STA to initiate transmission of an uplink, UL, reference frame to the AP, the trigger frame further causing at least one second STA to obtain a signal strength measurement during transmission of the UL reference frame; and receiving , by the AP from the at least one second STA, a reporting frame containing information about the signal strength measurement; based on the information contained in the reporting frame, selecting an UL transmitting STA for a FD UL transmission during a DL transmission; and storing, at the AP, potential interference information determined from the information contained in the reporting frame, the potential interference information indicating: for a given DL receiving STA, any acceptable UL transmitting STA for a FD UL transmission during a DL transmission to the given DL receiving STA; wherein selecting the UL transmitting STA is performed using the stored potential interference information.
Roof construction , comprising a supporting frame which is supported by means of a supporting construction of the roof construction and has at least two longitudinal beams arranged parallel to one another and at a mutual distance from one another and at least two transverse beams arranged parallel to one another and at a mutual distance from one another and which surrounds a frame field , and comprising at least one rafter which connects the transverse beams to one another, runs at a distance from the longitudinal beams and divides the frame field into a plurality of roof fields , at least one of the roof fields being covered by a cover plate and a water channel being formed in or on the rafter , which channel runs in the longitudinal direction of the rafter and opens into a collecting channel via a water outlet in its axial end region, the collecting channel being formed at least in portions by a pipe or a hose, characterized in that an overflow channel is provided, which is arranged at the axial end of the water channel of the rafter opposite the water outlet , the overflow channel being designed such that the water flows from the water channel of the rafter into the overflow channel and is drained through the overflow channel when a predetermined water level is reached within the water channel of the rafter .
A power supply (10; 10'; 10"; 10''') for at least one hydraulic machine (12; 112), comprising a casing (11; 11'; 11"; 11''') containing a pump device and having a movement input (M1) for the mechanical drive of the pump device, and a first and a second hydraulic power port (HP1, HP2), the casing containing a hydraulic valve device for selectively linking the pump device and said hydraulic power ports (HP1, HP2), the block being configured to be linked to means for controlling the hydraulic valve device and to adopt an activated state in which the first and second hydraulic power ports (HP1, HP2) are respectively set to a high pressure and to a low pressure of the pump device , characterized in that the hydraulic valve device comprises a power selector (S) linked to the hydraulic power ports (HP1, HP2; HP3, HP4), and configured to link, depending on its state, the first and second hydraulic power ports to each other so as to allow a rest state (P1) in which the first and second hydraulic power ports (HP1, HP2) are set to a common rest pressure, or selectively link the first and second hydraulic power ports to the pump device so as to allow the activated state (P2).
An exhaust gas purification equipment for a marine diesel engine using low-quality fuel such as fuel oil containing high-concentration sulfur components, the exhaust gas purification equipment comprising: a selective catalytic reduction device (hereinafter, referred to as "SCR") installed in an exhaust pipe connected to an engine exhaust manifold ; and a PM-free scrubber disposed on a downstream side of the SCR , characterized in that the PM-free scrubber removes no particulate matters (hereinafter, referred to as "PM") mainly composed of carbon and contained in exhaust gas by utilizing a difference in diffusion speed between gas and particles and because the exhaust gas does not fiercely collide with a surface of a thin-film layer formed of treatment water (W) which is always supplied to flow down along each of wall surfaces constituting the PM-free scrubber , but smoothly flows along near the surface of the water thin-film layer. a selective catalytic reduction device (hereinafter, referred to as "SCR") installed in an exhaust pipe connected to an engine exhaust manifold ; and a PM-free scrubber disposed on a downstream side of the SCR , characterized in that the PM-free scrubber removes no particulate matters (hereinafter, referred to as "PM") mainly composed of carbon and contained in exhaust gas by utilizing a difference in diffusion speed between gas and particles and because the exhaust gas does not fiercely collide with a surface of a thin-film layer formed of treatment water (W) which is always supplied to flow down along each of wall surfaces constituting the PM-free scrubber , but smoothly flows along near the surface of the water thin-film layer.
A method for calibration and/or error detection in an optical measurement device for biological samples having at least a first and a second measurement channel (3b,..., 3n), the method comprising: between measurements of biological samples in the second measurement channel (3b,..., 3n) of the optical measurement device, repeatedly performing a reference factor update process including: obtaining one or more current reference factors for the second measurement channel (3b,..., 3n), each reference factor being indicative of a relationship between previously obtained measurement signals in the first and second measurement channel (3b,..., 3n) of the optical measurement device; determining a first detection signal of the first measurement channel not including the biological sample; determining a second detection signal of the second measurement channel (3b,..., 3n); calculating an updated reference factor for the second measurement channel (3b,..., 3n) based on the first and second detection signals; comparing the updated reference factor with at least one of the one or more current reference factors; and depending on the result of the comparison, either storing the updated reference factor as a new current reference factor for use in a later measurement in the second measurement channel (3b,...,3n) or keeping the one or more current reference factors for use in a later measurement in the second measurement channel (3b,...,3n), wherein updated reference factors based on the first and second detection signals determined when the biological sample is present in the second measurement channel (3b,..., 3n) are discarded. obtaining one or more current reference factors for the second measurement channel (3b,..., 3n), each reference factor being indicative of a relationship between previously obtained measurement signals in the first and second measurement channel (3b,..., 3n) of the optical measurement device; determining a first detection signal of the first measurement channel not including the biological sample; determining a second detection signal of the second measurement channel (3b,..., 3n); calculating an updated reference factor for the second measurement channel (3b,..., 3n) based on the first and second detection signals; comparing the updated reference factor with at least one of the one or more current reference factors; and depending on the result of the comparison, either storing the updated reference factor as a new current reference factor for use in a later measurement in the second measurement channel (3b,...,3n) or keeping the one or more current reference factors for use in a later measurement in the second measurement channel (3b,...,3n), wherein updated reference factors based on the first and second detection signals determined when the biological sample is present in the second measurement channel (3b,..., 3n) are discarded.
A biological fluid filter assembly comprising: a flexible housing having first and second walls ; a filtration medium at least partially positioned between the first and second walls of the housing; a post-filter two-dimensional mesh at least partially positioned between the filtration medium and the second wall ; and a seal joining the first and second walls of the housing, wherein the post-filter two-dimensional mesh is a semi-permeable layer defining a plurality of openings without woven or overlapping strands or strips of material. a flexible housing having first and second walls ; a filtration medium at least partially positioned between the first and second walls of the housing; a post-filter two-dimensional mesh at least partially positioned between the filtration medium and the second wall ; and a seal joining the first and second walls of the housing, wherein the post-filter two-dimensional mesh is a semi-permeable layer defining a plurality of openings without woven or overlapping strands or strips of material.
A display device comprising: a display panel including: a display area (DPA) and a non-display area (NDA) surrounding the display area (DPA); and a metal wiring layer (MTL) disposed over at least a portion of the non-display area (NDA); an encapsulation substrate disposed on the display panel ; a sealing member which is disposed between the display panel and the encapsulation substrate and bonds the display panel to the encapsulation substrate ; wherein at least a portion of the sealing member is disposed on the metal wiring layer (MTL) in the non-display area (NDA), characterised by a first fusion region (MA) provided in a partial region between the sealing member and the encapsulation substrate , wherein the materials of the sealing member and the encapsulation substrate are mixed in the: first fusion region (MA), so that at least a portion (NPA) of the boundary between the sealing member and the encapsulation substrate has no physical boundary, and the first fusion region (MA) is provided therein, wherein the first fusion region (MA) is separated from the metal wiring layer (MTL) so as not to be in direct contact with the metal wiring layer (MTL) while overlapping the metal wiring layer (MTL) in a thickness direction (DR3). a display panel including: a display area (DPA) and a non-display area (NDA) surrounding the display area (DPA); and a metal wiring layer (MTL) disposed over at least a portion of the non-display area (NDA); a display area (DPA) and a non-display area (NDA) surrounding the display area (DPA); and a metal wiring layer (MTL) disposed over at least a portion of the non-display area (NDA); an encapsulation substrate disposed on the display panel ; a sealing member which is disposed between the display panel and the encapsulation substrate and bonds the display panel to the encapsulation substrate ; wherein at least a portion of the sealing member is disposed on the metal wiring layer (MTL) in the non-display area (NDA), characterised by a first fusion region (MA) provided in a partial region between the sealing member and the encapsulation substrate , wherein the materials of the sealing member and the encapsulation substrate are mixed in the: first fusion region (MA), so that at least a portion (NPA) of the boundary between the sealing member and the encapsulation substrate has no physical boundary, and the first fusion region (MA) is provided therein, wherein the first fusion region (MA) is separated from the metal wiring layer (MTL) so as not to be in direct contact with the metal wiring layer (MTL) while overlapping the metal wiring layer (MTL) in a thickness direction (DR3).
A vacuum insulated glazing unit comprising: a first glass pane and a second glass pane arranged in parallel, the second glass pane spaced apart from the first glass pane , wherein each glass pane comprises an inner surface and an outer surface , wherein the inner surface of the first glass pane and the inner surface of the second glass pane define a gap therebetween, and wherein the inner surface of at least the first glass pane comprises a low-emittance coating; a plurality of spacers arranged in the gap between of the inner surface of the first glass pane and the inner surface of the second glass pane ; and a side seal material attached around a periphery of the first glass pane and the second glass pane , thereby forming a sealed cavity between the glass panes , wherein at least a portion of the inner surface of the first glass pane comprises a strengthened portion that comprises a plurality of implanted ions, characterized in that the low emittance coating includes implanted ions, wherein a spacer-to-spacer distance between each adjacent spacer is 20 to 120 mm, preferably 25 to 80 mm, more preferably 30 to 60 mm, and wherein the plurality of implanted ions have an implant depth of 5 to 50 nm. a first glass pane and a second glass pane arranged in parallel, the second glass pane spaced apart from the first glass pane , wherein each glass pane comprises an inner surface and an outer surface , wherein the inner surface of the first glass pane and the inner surface of the second glass pane define a gap therebetween, and wherein the inner surface of at least the first glass pane comprises a low-emittance coating; a plurality of spacers arranged in the gap between of the inner surface of the first glass pane and the inner surface of the second glass pane ; and a side seal material attached around a periphery of the first glass pane and the second glass pane , thereby forming a sealed cavity between the glass panes , wherein at least a portion of the inner surface of the first glass pane comprises a strengthened portion that comprises a plurality of implanted ions, characterized in that the low emittance coating includes implanted ions, wherein a spacer-to-spacer distance between each adjacent spacer is 20 to 120 mm, preferably 25 to 80 mm, more preferably 30 to 60 mm, and wherein the plurality of implanted ions have an implant depth of 5 to 50 nm.
High-tensile brass alloy, characterised in that it consists of 60-62 wt % Cu; 5.8-6.2 wt.% Mn; 4.3-4.7 wt.% Ni; 4.9-5.1 wt.% Al; 1.3-1.7wt.% Si; 0.9-1.1 wt.% Fe; ≤ 0.1 wt.% Sn; ≤ 0.1 wt.% Pb; and the remainder being Zn together with unavoidable impurities. 5.8-6.2 wt.% Mn; 4.3-4.7 wt.% Ni; 4.9-5.1 wt.% Al; 1.3-1.7wt.% Si; 0.9-1.1 wt.% Fe; ≤ 0.1 wt.% Sn; ≤ 0.1 wt.% Pb; and the remainder being Zn together with unavoidable impurities.