mhurhangee/patent-ind-claim-en huggingface dataset:
A penetration device for cable(s), wire(s) or pipe(s) that pass through an opening arranged to a wall, a ceiling or a floor, characterized in that the penetration device comprises - an insert, which comprises an intumescent material and heat resistant flexible material layers , wherein the intumescent material has arranged between the heat resistant flexible material layers, the insert comprises at least one penetrating opening for a cable, a wire or a pipe elongated through the width direction of the insert, and - a housing, which comprises an outer casing surrounding the insert, which outer casing is at least partly perforated, and the outer casing comprises a first end and a second end in the length direction of the housing, which first end and second end comprise inward bent edges and/or a structural element to make an area of the opening of the first end and the second end smaller. - an insert, which comprises an intumescent material and heat resistant flexible material layers , wherein the intumescent material has arranged between the heat resistant flexible material layers, the insert comprises at least one penetrating opening for a cable, a wire or a pipe elongated through the width direction of the insert, and - a housing, which comprises an outer casing surrounding the insert, which outer casing is at least partly perforated, and the outer casing comprises a first end and a second end in the length direction of the housing, which first end and second end comprise inward bent edges and/or a structural element to make an area of the opening of the first end and the second end smaller.
A plough for cultivating an earth surface along a working direction (A), which comprises at least two cross frames , which in a working position extend along a width direction transversely to the working direction A in order to complement one another to a working width (B), wherein each of the cross frames carries at least one right-turning plough body and at least one left-turning plough body , wherein each of the cross frames is assigned a turning axis (W1, W2, W3) each about which it is rotatably arranged, wherein the turning axes (W1, W2, W3) are oriented parallel to the working direction (A) and are arranged spaced apart next to one another in the width direction.
A high-strength double-sided stainless steel clad sheet, characterized by comprising a substrate layer and stainless steel clad layers clad-rolled on double sides of the substrate layer; wherein the substrate layer consisting of, in mass percent, chemical elements: C: 0.03-0.12%, 0<Si≤0.30%, Mn: 0.2-1.0%, Al: 0.02-0.04%, Ti: 0.01-0.03%, Nb: 0.005-0.020%, N: 0.003-0.006%, P≤0.02%, and S≤0.015%, with the balance being iron and other inevitable impurities, wherein the chemical elements in the substrate layer also satisfy: 2.7×C+0.4×Si+Mn≤1.25, wherein C, Si and Mn each represent mass percent, respectively; the microstructure of the substrate layer is ferrite + pearlite + bainite, or ferrite + pearlite + bainite + widmanstatten, wherein the phase proportion of the bainite is ≤20%, and the phase proportion of the widmanstatten is ≤ 10%; the ferrite in the microstructure of the substrate layer has a grain size number ≥ grade 7; and the stainless steel clad layer is an austenitic stainless steel clad layer, wherein austenitic stainless steel is Cr-Ni based stainless steel or Cr-Ni-Mo based stainless steel. the microstructure of the substrate layer is ferrite + pearlite + bainite, or ferrite + pearlite + bainite + widmanstatten, wherein the phase proportion of the bainite is ≤20%, and the phase proportion of the widmanstatten is ≤ 10%; the ferrite in the microstructure of the substrate layer has a grain size number ≥ grade 7; and the stainless steel clad layer is an austenitic stainless steel clad layer, wherein austenitic stainless steel is Cr-Ni based stainless steel or Cr-Ni-Mo based stainless steel.
A heat storage member comprising: a substrate containing a SiC sintered body as a principal ingredient; and a heat storage material configured to store and radiate heat by a reversible chemical reaction with a reaction medium, or a heat storage material configured to store and radiate heat by physical adsorption to a reaction medium and physical desorption from a reaction medium, wherein the heat storage material includes at least one selected from the group consisting of oxides of Mg, Ca, Sr, Ba, hydroxides of Mg, Ca, Sr, Ba, carbonates of Mg, Ca, Sr, Ba, chlorides of Mg, Ca, Sr, Ba, and sulfates of Mg, Ca, Sr, Ba; wherein the substrate has a three-dimensional network structure including a skeleton having porosity of 1% or less, the heat storage member being characterized in that a void ratio of the three-dimensional network structure of the substrate ranges from 30 to 95%, and the heat storage material is disposed at least in a part of a surface of a void in the three-dimensional network structure of the substrate , wherein the void ratio is determined based on the theoretical density and the bulk density of the substrate according to the formula: void ratio = theoretical density − bulk density / theoretical density × 100 wherein the porosity of the skeleton is determined according to JIS R 1655; and wherein the heat storage material is a particulate having an average particle diameter ranging from 5 nm to 100 μm, the particulate heat storage material being adhered to at least a part of the surface of the void in the three-dimensional network structure of the substrate . a substrate containing a SiC sintered body as a principal ingredient; and a heat storage material configured to store and radiate heat by a reversible chemical reaction with a reaction medium, or a heat storage material configured to store and radiate heat by physical adsorption to a reaction medium and physical desorption from a reaction medium, wherein the porosity of the skeleton is determined according to JIS R 1655; and wherein the heat storage material is a particulate having an average particle diameter ranging from 5 nm to 100 μm, the particulate heat storage material being adhered to at least a part of the surface of the void in the three-dimensional network structure of the substrate .
A curable organic polymer comprising at least one acylurea unit represented by structural formula (I):
A sensing and secretion bypass apparatus , the sensing and secretion bypass apparatus comprising: an air flow sensor ; an adapter comprising a chamber having a first end configured to receive an air flow and a second end connected to the air flow sensor , wherein the air flow comprises secretions; an elevated member disposed within the chamber proximate the second end and configured to prevent the secretions from entering the air flow sensor ; and a disposal housing in fluid communication with the chamber of the adapter via a tube connecting the disposal housing to a bottom side of the chamber and configured to collect the secretions received via the first end of the chamber ; wherein the elevated member is sloped between a first end and a second end , wherein the elevated member is disposed within the chamber such that the first end of the elevated member is in contact with the bottom side of the chamber at a downstream edge of the tube , and the second end of the elevated member is separated from the bottom side of the chamber by a first distance less than a height of the chamber and is downstream of the first end. an air flow sensor ; an adapter comprising a chamber having a first end configured to receive an air flow and a second end connected to the air flow sensor , wherein the air flow comprises secretions; an elevated member disposed within the chamber proximate the second end and configured to prevent the secretions from entering the air flow sensor ; and a disposal housing in fluid communication with the chamber of the adapter via a tube connecting the disposal housing to a bottom side of the chamber and configured to collect the secretions received via the first end of the chamber ; wherein the elevated member is sloped between a first end and a second end , wherein the elevated member is disposed within the chamber such that the first end of the elevated member is in contact with the bottom side of the chamber at a downstream edge of the tube , and the second end of the elevated member is separated from the bottom side of the chamber by a first distance less than a height of the chamber and is downstream of the first end.
A triggering retaining method, applied to a user equipment, the triggering retaining method comprising: generating (S1) a media access control protocol data unit, MAC PDU, according to received uplink resource allocation indication information for a first service; in response to determining that the MAC PDU comprises a buffer status report, BSR, retaining (S2) triggering of a BSR and/or a scheduling request, SR, for a second service within a first predetermined duration and cancelling (S3) the BSR and/or the SR for the second service, for which the triggering is retained, after the first predetermined duration, wherein the first predetermined duration is from a timing at which it is determined that the MAC PDU comprises the BSR to a timing at which the MAC PDU is transmitted according to the uplink resource allocation indication information for the first service. generating (S1) a media access control protocol data unit, MAC PDU, according to received uplink resource allocation indication information for a first service; in response to determining that the MAC PDU comprises a buffer status report, BSR, retaining (S2) triggering of a BSR and/or a scheduling request, SR, for a second service within a first predetermined duration and cancelling (S3) the BSR and/or the SR for the second service, for which the triggering is retained, after the first predetermined duration, wherein the first predetermined duration is from a timing at which it is determined that the MAC PDU comprises the BSR to a timing at which the MAC PDU is transmitted according to the uplink resource allocation indication information for the first service.
A method, comprising: receiving, at a host device comprising a hypervisor that provides a virtual machine to a computing device , location information indicating a location of the computing device ; determining, by the host device , a subset of predefined context data based on the location of the computing device ; transmitting, by the host device , the subset of predefined context data to the computing device ; receiving, at the host device , contextual information identified from context data captured using an input device of the computing device , wherein the identifying of the contextual information comprises a match between the captured context data and the subset of predefined context data; generating, by the host device , content based on the contextual information; generating, by the host device , composite screen display data configured to display a composite screen, comprising a virtual desktop screen and the generated content overlaid on the virtual desktop screen, the virtual desktop screen comprising a user interface for an operating system of the virtual machine; and transmitting, by the host device the composite screen display data to the computing device . receiving, at a host device comprising a hypervisor that provides a virtual machine to a computing device , location information indicating a location of the computing device ; determining, by the host device , a subset of predefined context data based on the location of the computing device ; transmitting, by the host device , the subset of predefined context data to the computing device ; receiving, at the host device , contextual information identified from context data captured using an input device of the computing device , wherein the identifying of the contextual information comprises a match between the captured context data and the subset of predefined context data; generating, by the host device , content based on the contextual information; generating, by the host device , composite screen display data configured to display a composite screen, comprising a virtual desktop screen and the generated content overlaid on the virtual desktop screen, the virtual desktop screen comprising a user interface for an operating system of the virtual machine; and transmitting, by the host device the composite screen display data to the computing device .
A venting assembly for use with a wet pipe fire protection sprinkler system , said wet pipe fire protection sprinkler system having a pipe network , a source of water for said pipe network, and at least one sprinkler head connected with said pipe network, a drain valve for draining said pipe network , and inert gas source connected with said pipe network , said venting assembly comprising: a primary air vent adapted to be connected with the pipe network and vent gas but not water from the pipe network ; a redundant air vent coupled to the primary air vent and adapted to vent gas but not water from the pipe network ; and wherein the primary air vent opens to discharge gas to the redundant air vent ; characterized by an airflow regulator adapted to control gas flow between said primary air vent and atmosphere; wherein the redundant air vent opens to discharge gas to the airflow regulator ; wherein the airflow regulator opens to discharge gas to atmosphere when a gas pressure in the pipe network is above a set point pressure level; and wherein the airflow regulator closes to substantially prevent atmospheric air from entering the redundant air vent while the pipe network is drained of water. a primary air vent adapted to be connected with the pipe network and vent gas but not water from the pipe network ; a redundant air vent coupled to the primary air vent and adapted to vent gas but not water from the pipe network ; and wherein the primary air vent opens to discharge gas to the redundant air vent ; characterized by an airflow regulator adapted to control gas flow between said primary air vent and atmosphere; wherein the redundant air vent opens to discharge gas to the airflow regulator ; wherein the airflow regulator opens to discharge gas to atmosphere when a gas pressure in the pipe network is above a set point pressure level; and wherein the airflow regulator closes to substantially prevent atmospheric air from entering the redundant air vent while the pipe network is drained of water.
A silicon photonic integrated circuit, Si PIC, polarization splitter or combiner , comprising: a first silicon nitride, SiN, waveguide formed in a first layer of a silicon photonic integrated circuit, Si PIC; a second SiN waveguide formed in the first layer of the Si PIC; and a first Si waveguide , formed in a second layer of the Si PIC, comprising: a first tapered end laterally aligned with and adiabatically coupled to a coupler portion of the first SiN waveguide ; and a second tapered end laterally aligned with and adiabatically coupled to a coupler portion of the second SiN waveguide ; wherein a tip width of the first tapered end of the first Si waveguide and the second tapered end of the first Si waveguide is: narrower than a TE maximum taper width to permit adiabatic coupling of TE polarization of light with high efficiency relative to a coupling efficiency of TM polarization of light; and wider than a TM maximum taper width above which prevents adiabatic coupling of the TM polarization with high efficiency relative to coupling efficiency of the TE polarization. a first silicon nitride, SiN, waveguide formed in a first layer of a silicon photonic integrated circuit, Si PIC; a second SiN waveguide formed in the first layer of the Si PIC; and a first Si waveguide , formed in a second layer of the Si PIC, comprising: a first tapered end laterally aligned with and adiabatically coupled to a coupler portion of the first SiN waveguide ; and a second tapered end laterally aligned with and adiabatically coupled to a coupler portion of the second SiN waveguide ; a first tapered end laterally aligned with and adiabatically coupled to a coupler portion of the first SiN waveguide ; and a second tapered end laterally aligned with and adiabatically coupled to a coupler portion of the second SiN waveguide ; wherein a tip width of the first tapered end of the first Si waveguide and the second tapered end of the first Si waveguide is: narrower than a TE maximum taper width to permit adiabatic coupling of TE polarization of light with high efficiency relative to a coupling efficiency of TM polarization of light; and wider than a TM maximum taper width above which prevents adiabatic coupling of the TM polarization with high efficiency relative to coupling efficiency of the TE polarization. narrower than a TE maximum taper width to permit adiabatic coupling of TE polarization of light with high efficiency relative to a coupling efficiency of TM polarization of light; and wider than a TM maximum taper width above which prevents adiabatic coupling of the TM polarization with high efficiency relative to coupling efficiency of the TE polarization.
A method of welding an aluminum plated steel sheet, comprising: the first step of forming a preprocessed aluminum plated steel sheet in which a plating layer made of aluminum in a welding region is removed by an alkaline solution; and the second step of welding another member made of steel to the welding region of the preprocessed aluminum plated steel sheet to integrate the member and the preprocessed aluminum plated steel sheet , wherein the first step includes: arranging masks between a plurality of aluminum plated steel sheets as spacers ; bundling the aluminum plated steel sheets and the masks arranged therebetween, the masks being made to abut against regions other than plating removing regions of the respective aluminum plated steel sheets; and removing plating layers in the plating removing regions of the aluminum plated steel sheets by immersing in an alkaline solution partial regions, including the plating removing regions, of the aluminum plated steel sheets, wherein the preprocessed aluminum plated steel sheet is one of the aluminum plated steel sheets , the plating layers of which have been removed in the plating removing regions by the alkaline solution, and the plating removing region of the one of the aluminum plated steel sheets includes the welding region of the preprocessed aluminum plated steel sheet . the first step of forming a preprocessed aluminum plated steel sheet in which a plating layer made of aluminum in a welding region is removed by an alkaline solution; and the second step of welding another member made of steel to the welding region of the preprocessed aluminum plated steel sheet to integrate the member and the preprocessed aluminum plated steel sheet , wherein the first step includes: arranging masks between a plurality of aluminum plated steel sheets as spacers ; bundling the aluminum plated steel sheets and the masks arranged therebetween, the masks being made to abut against regions other than plating removing regions of the respective aluminum plated steel sheets; and removing plating layers in the plating removing regions of the aluminum plated steel sheets by immersing in an alkaline solution partial regions, including the plating removing regions, of the aluminum plated steel sheets, arranging masks between a plurality of aluminum plated steel sheets as spacers ; bundling the aluminum plated steel sheets and the masks arranged therebetween, the masks being made to abut against regions other than plating removing regions of the respective aluminum plated steel sheets; and removing plating layers in the plating removing regions of the aluminum plated steel sheets by immersing in an alkaline solution partial regions, including the plating removing regions, of the aluminum plated steel sheets, wherein the preprocessed aluminum plated steel sheet is one of the aluminum plated steel sheets , the plating layers of which have been removed in the plating removing regions by the alkaline solution, and the plating removing region of the one of the aluminum plated steel sheets includes the welding region of the preprocessed aluminum plated steel sheet .
A thermally-actuated flow-restrictor device for an aircraft galley insert, the flow-restrictor device comprising: a housing including a first flanged fitting and a second flanged fitting , the first flanged fitting including an outlet port configured to connect in fluid communication with the aircraft galley insert, and the second flanged fitting including an inlet port configured to connect in fluid communication with an aircraft potable water supply; a closure element contained within the housing , the closure element including one or more apertures for water to flow within the housing from the inlet port to the outlet port , the closure element having a surface facing the inlet port that is concave when the closure element is at ambient temperature to allow water to flow through the closure element from the inlet port to the outlet port ; wherein the closure element includes a plurality of metals each having a different coefficient of thermal expansion which allow the surface of the closure element facing the inlet port to become convex when water having a predetermined temperature contacts the closure element and that allow the surface of the closure element to return to being concave when the closure element cools toward ambient temperature; characterized in that when the surface of the closure element is convex, the surface is proximal to a boss concentrically surrounding the inlet port and contacts the boss while leaving a portion of one aperture aligned with the inlet port, thereby restricting the backflow of water in the housing from the outlet port to the inlet port . a housing including a first flanged fitting and a second flanged fitting , the first flanged fitting including an outlet port configured to connect in fluid communication with the aircraft galley insert, and the second flanged fitting including an inlet port configured to connect in fluid communication with an aircraft potable water supply; a closure element contained within the housing , the closure element including one or more apertures for water to flow within the housing from the inlet port to the outlet port , the closure element having a surface facing the inlet port that is concave when the closure element is at ambient temperature to allow water to flow through the closure element from the inlet port to the outlet port ; wherein the closure element includes a plurality of metals each having a different coefficient of thermal expansion which allow the surface of the closure element facing the inlet port to become convex when water having a predetermined temperature contacts the closure element and that allow the surface of the closure element to return to being concave when the closure element cools toward ambient temperature; characterized in that when the surface of the closure element is convex, the surface is proximal to a boss concentrically surrounding the inlet port and contacts the boss while leaving a portion of one aperture aligned with the inlet port, thereby restricting the backflow of water in the housing from the outlet port to the inlet port .