mhurhangee/patent-ind-claim-en huggingface dataset:
An exterior panel for a transport vehicle , the exterior panel comprising: an exterior skin configured for atmospheric exposure; an interior skin configured for attachment to a structural frame member of the transport vehicle ; a multicellular core sandwiched between the exterior skin and the interior skin ; and a superplastic formable reinforcement (SFR) layer underlying and supporting the exterior skin , wherein the multicellular core is superplastic formed and diffusion bonded to the exterior and interior skins . an exterior skin configured for atmospheric exposure; an interior skin configured for attachment to a structural frame member of the transport vehicle ; a multicellular core sandwiched between the exterior skin and the interior skin ; and a superplastic formable reinforcement (SFR) layer underlying and supporting the exterior skin , wherein the multicellular core is superplastic formed and diffusion bonded to the exterior and interior skins .
A crankshaft and conrod assembly comprising a crankshaft and a conrod , wherein the crankshaft comprises at least one main journal and one crankpin journal , and the at least one conrod is provided upon the crankpin journal , and the crankshaft is provided with an oil supply structure for supplying the crankpin journal with lubrication oil and the conrod with an oil pressure, wherein the oil supply structure comprises: an oil supply conduit provided between the main journal and the crankpin journal (112, at least a first oil supply opening and a second oil supply opening are provided at the crankpin journal , and a connection point where the oil supply conduit connects to the first and second oil supply openings , wherein the conrod is arranged upon the crank pin journal through a bearing sleeve , at which at least a first oil groove and a second oil groove are provided in a circumferential direction at an inner surface of the bearing sleeve , wherein the first oil supply opening is provided at a first radial distance (D1) from a rotational axis (rx1) of the crankshaft , the second oil supply opening is provided at a second radial distance (D2) from the rotational axis (rx1) and both the first and second radial distance (D1, D2) are larger than or equal to the distance (d1) between the connection point and the rotational axis (rx1) of the crankshaft , wherein an angle (A) between the first and second oil supply openings is larger than an angle (B1, B2) between opposing end portions (152_1, 153_1) of the two oil grooves and the angle (A) between the first and second oil supply openings is larger than the angular distance (C) of at least one of the oil grooves and wherein at least a third oil supply opening is provided in between the first and second oil supply openings . an oil supply conduit provided between the main journal and the crankpin journal (112, at least a first oil supply opening and a second oil supply opening are provided at the crankpin journal , and a connection point where the oil supply conduit connects to the first and second oil supply openings , wherein the conrod is arranged upon the crank pin journal through a bearing sleeve , at which at least a first oil groove and a second oil groove are provided in a circumferential direction at an inner surface of the bearing sleeve , wherein the first oil supply opening is provided at a first radial distance (D1) from a rotational axis (rx1) of the crankshaft , the second oil supply opening is provided at a second radial distance (D2) from the rotational axis (rx1) and both the first and second radial distance (D1, D2) are larger than or equal to the distance (d1) between the connection point and the rotational axis (rx1) of the crankshaft , wherein an angle (A) between the first and second oil supply openings is larger than an angle (B1, B2) between opposing end portions (152_1, 153_1) of the two oil grooves and the angle (A) between the first and second oil supply openings is larger than the angular distance (C) of at least one of the oil grooves and wherein at least a third oil supply opening is provided in between the first and second oil supply openings .
A wireless communication method, comprising the following steps: obtaining, by user equipment, UE, pre-authorized Quality of Service, QoS, information as a part of subscription content, wherein the pre-authorized QoS information comprises information about a service pre-authorized to the UE; when the UE needs to start transmission of an uplink first data flow, the UE checks QoS authorization information of the first data flow, if the first data flow belongs to the service pre-authorized to the UE, sending , by the UE, a bearer setup request to an access network device, wherein the bearer setup request comprises an identifier of the UE and a descriptor of the first data flow, and the descriptor of the first data flow is used to describe information about the first data flow; and receiving , by the UE, a bearer setup response sent by the access network device, wherein the bearer setup response comprises a bearer identifier, and the bearer identifier is an identifier of a bearer that is set up. obtaining, by user equipment, UE, pre-authorized Quality of Service, QoS, information as a part of subscription content, wherein the pre-authorized QoS information comprises information about a service pre-authorized to the UE; when the UE needs to start transmission of an uplink first data flow, the UE checks QoS authorization information of the first data flow, if the first data flow belongs to the service pre-authorized to the UE, sending , by the UE, a bearer setup request to an access network device, wherein the bearer setup request comprises an identifier of the UE and a descriptor of the first data flow, and the descriptor of the first data flow is used to describe information about the first data flow; and receiving , by the UE, a bearer setup response sent by the access network device, wherein the bearer setup response comprises a bearer identifier, and the bearer identifier is an identifier of a bearer that is set up.
A field device control unit for a printing system, wherein the field device control unit is defined as at least one field device control unit (C) with computing capabilities, that is configured to be operatively connected to at least one field device (D1-D5) to control at least part of the operation thereof, wherein the at least one field device control unit (C) is adapted to be operatively connected, in an interchangeable manner, to each of a plurality of field devices (D1-D5), each configured and arranged to perform a distinct task of a printing process, said plurality of field devices including said at least one field device (D1-D5); wherein said printing system comprises: - a printing head (H) configured and arranged to print on a substrate as part of a printing process, - said at least one field device (D1-D5) configured and arranged to perform a further task of said printing process; and - a distributed control system comprising: - a printer control unit (PE) with computing capabilities, that is operatively connected to said printing head (H) to control the operation thereof; - said at least one field device control unit (C) with computing capabilities, that is operatively connected to said at least one field device (D1-D5) to control at least part of the operation thereof; and - a fieldbus (B) interconnecting at least said printer control unit (PE) and said at least one field device control unit (C), wherein said fieldbus (B) provides a real-time communication between said printer control unit (PE) and said at least one field device control unit (C). - a printing head (H) configured and arranged to print on a substrate as part of a printing process, - said at least one field device (D1-D5) configured and arranged to perform a further task of said printing process; and - a distributed control system comprising: - a printer control unit (PE) with computing capabilities, that is operatively connected to said printing head (H) to control the operation thereof; - said at least one field device control unit (C) with computing capabilities, that is operatively connected to said at least one field device (D1-D5) to control at least part of the operation thereof; and - a fieldbus (B) interconnecting at least said printer control unit (PE) and said at least one field device control unit (C), wherein said fieldbus (B) provides a real-time communication between said printer control unit (PE) and said at least one field device control unit (C). - a printer control unit (PE) with computing capabilities, that is operatively connected to said printing head (H) to control the operation thereof; - said at least one field device control unit (C) with computing capabilities, that is operatively connected to said at least one field device (D1-D5) to control at least part of the operation thereof; and - a fieldbus (B) interconnecting at least said printer control unit (PE) and said at least one field device control unit (C), wherein said fieldbus (B) provides a real-time communication between said printer control unit (PE) and said at least one field device control unit (C).
A lacrimal stent for intraluminal drainage of a mammal, the mammal having a lacrimal drainage structure, the lacrimal stent comprising: an elongated tubular silicone member configured to be inserted into at least a portion of the lacrimal drainage structures of the mammal, the elongated tubular silicone member having an exterior sidewall surface and an interior lumen ; and at least one axial port extending through the exterior sidewall surface to the lumen of the elongated tubular silicone member , each axial port is configured to permit fluidic flow of the tears of the mammal into the lumen for the purpose of intraluminal drainage, wherein the depth of cut of each axial port is between 40-65% of the diameter of lacrimal stent , and wherein each axial port is shaped having a generally smooth, rounded, elongated U-shape. an elongated tubular silicone member configured to be inserted into at least a portion of the lacrimal drainage structures of the mammal, the elongated tubular silicone member having an exterior sidewall surface and an interior lumen ; and at least one axial port extending through the exterior sidewall surface to the lumen of the elongated tubular silicone member , each axial port is configured to permit fluidic flow of the tears of the mammal into the lumen for the purpose of intraluminal drainage, wherein the depth of cut of each axial port is between 40-65% of the diameter of lacrimal stent , and wherein each axial port is shaped having a generally smooth, rounded, elongated U-shape.
A method for processing a resource description file, wherein the method is applied to a client terminal, and comprises: sending (S11) an access request directed to a target page to a node server, and receiving the resource description file of the target page fed back by the node server, wherein the resource description file includes a monitoring script inserted by the node server; when the monitoring script is executed in the client terminal, monitoring (S13) a resource link generated by the client terminal in a process of parsing the resource description file, determining whether the resource link contains an external link, and if the resource link contains an external link, rewriting the external link into an internal link, and replacing the corresponding external link in the resource link with the rewritten internal link; and writing (S15) the rewritten resource link into the resource description file, and according to the resource description file including the rewritten resource link, obtaining a page resource of the target page; wherein a specified resource path is preset by the node server in the monitoring script, wherein rewriting the external link into the internal link includes: through the specified resource path, integrating the domain name of the target page and the external link, and using an integrated result as the rewritten internal link. sending (S11) an access request directed to a target page to a node server, and receiving the resource description file of the target page fed back by the node server, wherein the resource description file includes a monitoring script inserted by the node server; when the monitoring script is executed in the client terminal, monitoring (S13) a resource link generated by the client terminal in a process of parsing the resource description file, determining whether the resource link contains an external link, and if the resource link contains an external link, rewriting the external link into an internal link, and replacing the corresponding external link in the resource link with the rewritten internal link; and writing (S15) the rewritten resource link into the resource description file, and according to the resource description file including the rewritten resource link, obtaining a page resource of the target page; wherein a specified resource path is preset by the node server in the monitoring script, wherein rewriting the external link into the internal link includes: through the specified resource path, integrating the domain name of the target page and the external link, and using an integrated result as the rewritten internal link.
Current sensor comprising: - an insulating substrate with a central opening ; - a Rogowski winding surrounding the central aperture and including a first coil and a second coil superimposed and electrically connected in series, the first coil and the second coil being wound round the substrate along, respectively, a first contour line (C1) and a second contour line (C2), each contour line delimiting, in the plane of the substrate, a quadrilateral-shaped contour centred around the central opening; characterised in that the quadrilateral contour delimited by the first contour line (C1) has a length (L1) greater than the length (L2) of the quadrilateral delimited by the second contour line (C2) and a width (l1) less than the width (l2) of the quadrilateral delimited by the second contour line (C2). - an insulating substrate with a central opening ; - a Rogowski winding surrounding the central aperture and including a first coil and a second coil superimposed and electrically connected in series, the first coil and the second coil being wound round the substrate along, respectively, a first contour line (C1) and a second contour line (C2), each contour line delimiting, in the plane of the substrate, a quadrilateral-shaped contour centred around the central opening;
Process for producing synthetic quartz glass, characterized by the following process steps: Evaporating a feedstock containing at least one organosilicon starting compound to form a feedstock vapor, Feeding the feedstock vapor from process step to a reaction zone in which the feedstock vapor is burned in a flame in the presence of oxygen and is converted to SiO 2 soot particles by oxidation and/or by hydrolysis; Depositing the SiO 2 soot particles resulting from process step on a deposition surface to form a soot body; if necessary, drying and vitrification of the SiO 2 particles resulting from process step to form synthetic fused silica; characterized in that in process step , the deposition surface for the SiO 2 soot particles is located for a period of at least 50 % of the build-up time of the soot body at a distance from the burner, which lies between the position of the maximum of the luminous intensity of the targetless flame up to a position behind the maximum, viewed from the burner, at which the horizontally integrated luminous intensity of the flame, defined as a function of the vertical distance from the burner, is still at least 2/3 of the maximum, wherein the luminous intensity is measured according to the method described in the specification. Evaporating a feedstock containing at least one organosilicon starting compound to form a feedstock vapor, Feeding the feedstock vapor from process step to a reaction zone in which the feedstock vapor is burned in a flame in the presence of oxygen and is converted to SiO 2 soot particles by oxidation and/or by hydrolysis; Depositing the SiO 2 soot particles resulting from process step on a deposition surface to form a soot body; if necessary, drying and vitrification of the SiO 2 particles resulting from process step to form synthetic fused silica; characterized in that in process step , the deposition surface for the SiO 2 soot particles is located for a period of at least 50 % of the build-up time of the soot body at a distance from the burner, which lies between the position of the maximum of the luminous intensity of the targetless flame up to a position behind the maximum, viewed from the burner, at which the horizontally integrated luminous intensity of the flame, defined as a function of the vertical distance from the burner, is still at least 2/3 of the maximum, wherein the luminous intensity is measured according to the method described in the specification.
A heat exchange device comprising: a heat exchanger configured to allow heat exchange between water and refrigerant; a pulse generation unit disposed on a flow path of water flowing into the heat exchanger , configured to generate pulsing of water flowing through the flow path ; and a control unit configured to control the pulse generation unit, the control unit being configured to control the pulse generation unit at a target flow ratio characterized in that the target flow ratio is based on a maximum allowable flow speed determined from an average flow rate through a flow path of the heat exchanger and a pipe diameter of the flow path of the heat exchanger wherein the flow path is a water pipe made of stainless steel; and the pulse generation unit includes a plurality of pumps each disposed on a corresponding one of a plurality of additional flow paths branched from the flow path , and the control unit is configured to operate one of the plurality of pumps at a constant flow rate and turning on and off another one of the plurality of pumps so that water merged through the plurality of pumps has the target flow ratio. a heat exchanger configured to allow heat exchange between water and refrigerant; a pulse generation unit disposed on a flow path of water flowing into the heat exchanger , configured to generate pulsing of water flowing through the flow path ; and a control unit configured to control the pulse generation unit, the control unit being configured to control the pulse generation unit at a target flow ratio characterized in that the target flow ratio is based on a maximum allowable flow speed determined from an average flow rate through a flow path of the heat exchanger and a pipe diameter of the flow path of the heat exchanger wherein the flow path is a water pipe made of stainless steel; and the pulse generation unit includes a plurality of pumps each disposed on a corresponding one of a plurality of additional flow paths branched from the flow path , and the control unit is configured to operate one of the plurality of pumps at a constant flow rate and turning on and off another one of the plurality of pumps so that water merged through the plurality of pumps has the target flow ratio.
Device (10; 20; 30; 30C; 40; 50; 60) for temperature monitoring of a cryopreserved biological sample , comprising a) a sample container (1; 51) with a receiving space for receiving a biological sample ; and b) at least one chamber, the inner space of which is not fluidically connected to the receiving space and is only partially filled with an indicator substance , the melting temperature of which lies in a range from -20°C to -140°C characterized in variant i): that the at least one chamber is formed by a container (31; 41; 61) with one (34; 44; 64) or more cavities which is fastened pivotably to the sample container ; or variant ii): that the at least one chamber is formed by a double-walled push-on part (11; 21), which is fastened detachably to the sample container or glued onto the sample container; or variant iii): that the receiving space of the sample container for the formation of the at least one chamber is embodied to be double-walled with an inner wall and an outer wall , wherein an intermediate space between the inner wall and the outer wall is partially filled with the indicator substance . a) a sample container (1; 51) with a receiving space for receiving a biological sample ; and b) at least one chamber, the inner space of which is not fluidically connected to the receiving space and is only partially filled with an indicator substance , the melting temperature of which lies in a range from -20°C to -140°C that the at least one chamber is formed by a container (31; 41; 61) with one (34; 44; 64) or more cavities which is fastened pivotably to the sample container ; or variant ii): that the at least one chamber is formed by a double-walled push-on part (11; 21), which is fastened detachably to the sample container or glued onto the sample container; or variant iii): that the receiving space of the sample container for the formation of the at least one chamber is embodied to be double-walled with an inner wall and an outer wall , wherein an intermediate space between the inner wall and the outer wall is partially filled with the indicator substance .
A pre-combustion chamber assembly for a spark ignition engine, the assembly having: an ignition chamber adapted to contain at least one electrode of a spark generator ; the ignition chamber being adapted to communicate with a main engine combustion chamber via at least one pre-chamber port ; wherein the ignition chamber communicates for removal therefrom of exhaust gas residuals to a distinct storage chamber via at least one transfer port ; characterised in that the ignition chamber includes an entrance channel leading from each said pre-chamber port in a direction towards an ignition region of the ignition chamber , the ignition region having a larger cross-section than the entrance channel , wherein the entrance channel is substantially a circular cylinder and the ignition region is substantially circularly cylindrical, and wherein the entrance channel and ignition region are joined by a flaring chamber connector wall ; and wherein the ignition chamber includes a tumble feature adapted to promote flow tumble, and the tumble feature is located in the region of the flaring chamber wall .