mhurhangee/patent-ind-claim-en huggingface dataset:
A connector assembly , comprising: a housing that extends from a first end to a second end , the housing including a base wall , with a first rear side wall , a second rear side wall and a third rear side wall extending from the base wall ; a mounting flange extending from the base wall and positioned proximal to the first end of the housing , the mounting flange housing at least a portion of one or more ports ; a first locking member mounted with respect to the first rear side wall ; a bezel member extending from a first end to a second end , the bezel member having one or more receipt apertures ; and a panel member having a front panel surface and a rear side, the panel member including an aperture ; characterized in that the bezel member is mounted to the front panel surface and with respect to the aperture of the panel member , the housing is mounted with respect to the rear side of the panel member and with respect to the aperture of the panel member so that at least a portion of the one or more ports are positioned within the one or more receipt apertures of the bezel member , and the first locking member is configured to be moved from an unlocked position to a locked position to lockingly engage the housing , the bezel member and the panel member with respect to one another. a housing that extends from a first end to a second end , the housing including a base wall , with a first rear side wall , a second rear side wall and a third rear side wall extending from the base wall ; a mounting flange extending from the base wall and positioned proximal to the first end of the housing , the mounting flange housing at least a portion of one or more ports ; a first locking member mounted with respect to the first rear side wall ; a bezel member extending from a first end to a second end , the bezel member having one or more receipt apertures ; and a panel member having a front panel surface and a rear side, the panel member including an aperture ; characterized in that the bezel member is mounted to the front panel surface and with respect to the aperture of the panel member , the housing is mounted with respect to the rear side of the panel member and with respect to the aperture of the panel member so that at least a portion of the one or more ports are positioned within the one or more receipt apertures of the bezel member , and the first locking member is configured to be moved from an unlocked position to a locked position to lockingly engage the housing , the bezel member and the panel member with respect to one another.
A Light Emitting Diode, LED, based lighting device arranged to emit colored light, wherein said LED based lighting device comprises: - a first LED channel comprising at least one LED arranged for emitting light at a first color and a switch ; - a second LED channel comprising at least one LED arranged for emitting light at a second color, said second color being different to said first color, and a further switch ; - a memory having aging properties of each of the LED's stored therein; - a controller arranged for: - activating said first LED channel and said second LED channel by controlling the switch and the further switch with a pulse width signal based on a color ratio such that said LED based lighting device emits light having a particular color; characterized in that the controller is further arranged for: - keeping track of amounts of time that said first LED channel and said second LED channel are activated, and correcting said color ratio based on the aging properties of each of the LEDs and said tracked amount of time that said first LED channel has been activated and said tracked amount of time that said second LED channel has been activated, thereby ensuring color consistency of said particular color of said LED based lighting device over time. - a first LED channel comprising at least one LED arranged for emitting light at a first color and a switch ; - a second LED channel comprising at least one LED arranged for emitting light at a second color, said second color being different to said first color, and a further switch ; - a memory having aging properties of each of the LED's stored therein; - a controller arranged for: - activating said first LED channel and said second LED channel by controlling the switch and the further switch with a pulse width signal based on a color ratio such that said LED based lighting device emits light having a particular color; - keeping track of amounts of time that said first LED channel and said second LED channel are activated, and correcting said color ratio based on the aging properties of each of the LEDs and said tracked amount of time that said first LED channel has been activated and said tracked amount of time that said second LED channel has been activated, thereby ensuring color consistency of said particular color of said LED based lighting device over time.
A laser welding head comprising: a collimator configured to be coupled to an output fiber of a fiber laser ; at least first and second movable mirrors configured to receive a collimated laser beam from the collimator ; a focus lens configured to focus the laser beam relative to a workpiece while the beam is moved; and characterized in that the at least first and second movable mirrors are configured to move the beam in first and second axes within only a limited field of view defined by a scan angle of about 1-2°; and in that the focus lens is not a scanning lens and is not a multi-element scanning lens, wherein an F theta lens is a multi-element scanning lens. a collimator configured to be coupled to an output fiber of a fiber laser ; at least first and second movable mirrors configured to receive a collimated laser beam from the collimator ; a focus lens configured to focus the laser beam relative to a workpiece while the beam is moved; and characterized in that the at least first and second movable mirrors are configured to move the beam in first and second axes within only a limited field of view defined by a scan angle of about 1-2°; and in that the focus lens is not a scanning lens and is not a multi-element scanning lens, wherein an F theta lens is a multi-element scanning lens.
A method for determining information, comprises: receiving (S101) carrier signals discontinuously sent by a network side; obtaining first carrier signal phase measurement values based on the carrier signals discontinuously sent by the network side through a carrier signal phase-locked loop; in response to a phase change of carrier signals transmitted in a predefined first time interval being less than a preset value, deriving second carrier signal phase measurement values for positioning the terminal from the first carrier signal phase measurement values by using an interpolation algorithm; in response to a phase change of carrier signals transmitted in a predefined first time interval being greater than or equal to a preset value, determining carrier signal phase predicted values in a target uplink data transmission cycle by using a change rate of a plurality of first carrier signal phase measurement values in a same downlink data transmission cycle and first carrier signal phase measurement values in a previous downlink data transmission cycle of the target uplink data transmission cycle, and determining the second carrier signal phase measurement values for positioning the terminal according to the carrier signal phase predicted values. receiving (S101) carrier signals discontinuously sent by a network side; obtaining first carrier signal phase measurement values based on the carrier signals discontinuously sent by the network side through a carrier signal phase-locked loop; in response to a phase change of carrier signals transmitted in a predefined first time interval being less than a preset value, deriving second carrier signal phase measurement values for positioning the terminal from the first carrier signal phase measurement values by using an interpolation algorithm; in response to a phase change of carrier signals transmitted in a predefined first time interval being greater than or equal to a preset value, determining carrier signal phase predicted values in a target uplink data transmission cycle by using a change rate of a plurality of first carrier signal phase measurement values in a same downlink data transmission cycle and first carrier signal phase measurement values in a previous downlink data transmission cycle of the target uplink data transmission cycle, and determining the second carrier signal phase measurement values for positioning the terminal according to the carrier signal phase predicted values.
A helmet comprising: an inner shell ; an outer shell , configured to be able to displace relative to the inner shell in response to an impact; a sliding interface between the inner shell and the outer shell ; and characterised by further comprising: an impact response adjustment mechanism configured to be adjustable such that the response profile of the relative displacement over time of the outer shell in relation to the inner shell in response to an impact on the helmet varies depending on the setting of the impact response adjustment mechanism. an inner shell ; an outer shell , configured to be able to displace relative to the inner shell in response to an impact; a sliding interface between the inner shell and the outer shell ; and characterised by further comprising: an impact response adjustment mechanism configured to be adjustable such that the response profile of the relative displacement over time of the outer shell in relation to the inner shell in response to an impact on the helmet varies depending on the setting of the impact response adjustment mechanism.
Balance spring intended to equip a balance of a horological movement, the balance spring being made of a niobium and titanium alloy containing by weight: - niobium: the remainder to 100%; - traces of other elements selected from among O, H, C, Fe, Ta, N, Ni, Si, Cu and/or Al, each of said elements being in the range of 0 to 1,600 ppm of the total weight, and the sum of said trace elements being less than or equal to 0.3 wt. %, characterised in that the niobium alloy comprises titanium in a weight percentage of between 27 and 33 wt.%. - niobium: the remainder to 100%; - traces of other elements selected from among O, H, C, Fe, Ta, N, Ni, Si, Cu and/or Al, each of said elements being in the range of 0 to 1,600 ppm of the total weight, and the sum of said trace elements being less than or equal to 0.3 wt. %,
A bowel perforation detection device comprising: a sample delivery unit comprising: an outer housing section, an inner tubing section, a portion of which is perforated, configured to transport an aspirate sample comprising a gas component, a liquid component, and a microbial component, a sleeve comprising an absorbent wicking material disposed between the perforated portion of the inner tubing section and the outer housing, wherein the liquid component of the aspirate sample passes through the perforated portion to the wicking material, a hydrophobic liquid filter having pore sizes ranging from 100 microns to 500 microns configured to filter a residual liquid component from the aspirate sample, and a gas/microbial filter configured to filter the microbial component from the aspirate sample, separating the gas component of the aspirate sample for analysis; a sensing unit comprising a gas-detecting means, a pump, a processor, and a display, wherein said gas-detecting means comprises an infrared carbon dioxide sensor and an infrared methane gas sensor; and a connector configured to connect the sample delivery unit and the sensing unit. a sample delivery unit comprising: an outer housing section, an inner tubing section, a portion of which is perforated, configured to transport an aspirate sample comprising a gas component, a liquid component, and a microbial component, a sleeve comprising an absorbent wicking material disposed between the perforated portion of the inner tubing section and the outer housing, wherein the liquid component of the aspirate sample passes through the perforated portion to the wicking material, a hydrophobic liquid filter having pore sizes ranging from 100 microns to 500 microns configured to filter a residual liquid component from the aspirate sample, and a gas/microbial filter configured to filter the microbial component from the aspirate sample, separating the gas component of the aspirate sample for analysis; an outer housing section, an inner tubing section, a portion of which is perforated, configured to transport an aspirate sample comprising a gas component, a liquid component, and a microbial component, a sleeve comprising an absorbent wicking material disposed between the perforated portion of the inner tubing section and the outer housing, wherein the liquid component of the aspirate sample passes through the perforated portion to the wicking material, a hydrophobic liquid filter having pore sizes ranging from 100 microns to 500 microns configured to filter a residual liquid component from the aspirate sample, and a gas/microbial filter configured to filter the microbial component from the aspirate sample, separating the gas component of the aspirate sample for analysis; a sensing unit comprising a gas-detecting means, a pump, a processor, and a display, wherein said gas-detecting means comprises an infrared carbon dioxide sensor and an infrared methane gas sensor; and a connector configured to connect the sample delivery unit and the sensing unit.
A transparent substrate coated with a stack of thin layers comprising, starting from the substrate, a bottom dielectric coating, a silver-based functional metal layer and a top dielectric coating, each dielectric coating comprising several dielectric layers, characterized in that : - the bottom dielectric coating comprises, starting from the substrate: a series of at least three dielectric layers having increasing refractive indices, the index difference between each successive layer being at least 0.15, a smoothing layer and a wetting layer, preferably based on zinc oxide, - the bottom dielectric coating comprises, starting from the substrate: a zinc-oxide-based layer and a series of at least two layers having decreasing refractive indices, the index difference between each successive layer being at least 0.15. - the bottom dielectric coating comprises, starting from the substrate: a series of at least three dielectric layers having increasing refractive indices, the index difference between each successive layer being at least 0.15, a smoothing layer and a wetting layer, preferably based on zinc oxide, - the bottom dielectric coating comprises, starting from the substrate: a zinc-oxide-based layer and a series of at least two layers having decreasing refractive indices, the index difference between each successive layer being at least 0.15.
A non-tubular material for use in regenerating a damaged site of a nerve, the material comprising: (A) a crosslinked form obtained by covalent bond crosslinking a low endotoxin bioabsorbable polysaccharide having a carboxyl group within a molecule thereof with at least one type of crosslinking reagent selected from a compound represented by the following general formula (I) and a salt thereof: R 1 HN-(CH 2 ) n -NHR 2 (I), wherein, R 1 and R 2 respectively and independently represent a hydrogen atom or group represented by the formula: -COCH(NH 2 )-(CH 2 ) 4 -NH 2 , and n represents an integer of 2 to 18; and (B) a bioabsorbable polymer being a nonwoven fabric, woven fabric, mesh or needle punch. (A) a crosslinked form obtained by covalent bond crosslinking a low endotoxin bioabsorbable polysaccharide having a carboxyl group within a molecule thereof with at least one type of crosslinking reagent selected from a compound represented by the following general formula (I) and a salt thereof: R 1 HN-(CH 2 ) n -NHR 2 (I), wherein, R 1 and R 2 respectively and independently represent a hydrogen atom or group represented by the formula: -COCH(NH 2 )-(CH 2 ) 4 -NH 2 , and n represents an integer of 2 to 18; and (B) a bioabsorbable polymer being a nonwoven fabric, woven fabric, mesh or needle punch.
A method for obtaining protein ingredients for animal feed from seeds of sunflowers or rape, with at least the following steps - shelling the sunflower seeds or rapeseeds up to a shell content of <2.5 wt% to obtain shelled sunflower seeds or rapeseeds, or providing shelled sunflower seeds or rapeseeds having a shell content of <2.5 wt%; - mechanical partial extraction of the oil from the shelled sunflower seeds or rapeseeds by pressing up to a fat or oil content in the range between >6 and <25 wt%; - carrying out at least one extraction step for further extraction of the oil from the sunflower seeds or rapeseeds with at least one organic solvent or supercritical CO2 up to an oil content of less than 3.5 wt%, and - subsequent desolventing, whereby a protein-containing product is obtained as a protein ingredient for animal feed, - wherein at least one protein-denaturing treatment of the sunflower seeds or rapeseeds is carried out between the shelling of the sunflower seeds or rapeseeds and obtaining the protein ingredient in such manner that proteins contained in the protein ingredient are denatured to a percentage of >40 %. - shelling the sunflower seeds or rapeseeds up to a shell content of <2.5 wt% to obtain shelled sunflower seeds or rapeseeds, or providing shelled sunflower seeds or rapeseeds having a shell content of <2.5 wt%; - mechanical partial extraction of the oil from the shelled sunflower seeds or rapeseeds by pressing up to a fat or oil content in the range between >6 and <25 wt%; - carrying out at least one extraction step for further extraction of the oil from the sunflower seeds or rapeseeds with at least one organic solvent or supercritical CO2 up to an oil content of less than 3.5 wt%, and - subsequent desolventing, whereby a protein-containing product is obtained as a protein ingredient for animal feed, - wherein at least one protein-denaturing treatment of the sunflower seeds or rapeseeds is carried out between the shelling of the sunflower seeds or rapeseeds and obtaining the protein ingredient in such manner that proteins contained in the protein ingredient are denatured to a percentage of >40 %.
Mobile covering element for a covering apparatus , preferably an adjustable sunshade, comprising a main body with an oblong development, having a longitudinal axis (X), a first longitudinal lateral flank , a second longitudinal lateral flank , disposed on the opposite side with respect to said first longitudinal lateral flank , and at least a lower surface , configured to be disposed, in a covering position, on a covering plane (PC), parallel to or passing through said longitudinal axis (X), and configured to be inclined with respect to the covering plane in an inactive or open position, wherein it also comprises a longitudinal lateral appendix disposed in correspondence with said second longitudinal lateral flank of said main body parallel to said longitudinal axis (X), wherein said longitudinal lateral appendix is integral with said main body , is positioned at least for a part, preferably wholly, above the bulk of said main body , and is configured to cooperate with said first longitudinal lateral flank of another identical adjacent mobile covering element of said covering apparatus , when said mobile covering elements are in said covering position, with the respective lower surfaces lying on said covering plane (PC), characterized in that said longitudinal lateral appendix has a substantially box-like structure.
An apparatus for producing fluid concrete comprising: - at least a first mixer configured to mix at least cement (C) with at least a first amount of water (A1), said first mixer having an outlet section adapted to expel said low fluidity concrete , - a water supply means configured to supply said first amount of water (A1) to said first mixer ; - a cement supply means configured to supply cement (C) to said first mixer ; - a control and adjustment unit , connected to said water supply means and to said at least one cement supply means, configured to calculate said first quantity of water (A1) and to selectively control and adjust the introduction of water (A1) and cement (C) into the first mixer to realise a low fluidity concrete having consistency class ≤ S2; characterised in that said water supply means is configured to supply a second amount of water (A2) at or downstream of the outlet section of the first mixer ; said control and adjustment unit being configured to calculate said second amount of water (A2) so as to make a fluid concrete having consistency class > S2, and to control and adjust the supply of said second amount of water (A2) to said outlet section ; said control and adjustment unit being configured to pre-calculate said first amount of water (A1) and said second amount of water (A2) according to the type of concrete to be made prior to the introduction of water (A1) and cement (C) into the first mixer . - at least a first mixer configured to mix at least cement (C) with at least a first amount of water (A1), said first mixer having an outlet section adapted to expel said low fluidity concrete , - a water supply means configured to supply said first amount of water (A1) to said first mixer ; - a cement supply means configured to supply cement (C) to said first mixer ; - a control and adjustment unit , connected to said water supply means and to said at least one cement supply means, configured to calculate said first quantity of water (A1) and to selectively control and adjust the introduction of water (A1) and cement (C) into the first mixer to realise a low fluidity concrete having consistency class ≤ S2;