mhurhangee/patent-ind-claim-en huggingface dataset:
Corrugating roll for producing a corrugated web , having a fluting , from a material web , a) with a corrugating roll body , b) with a central longitudinal axis , c) with a peripheral direction about the central longitudinal axis , and d) with a surface fluting (30; 30a; 30b; 30c; 30d; 30e), which has i) at least one first corrugating tooth , arranged peripherally on the corrugating roll body , and ii) at least one second corrugating tooth (38; 38a; 38b; 38c; 38d; 38e), which is arranged peripherally on the corrugating roll body and which differs from the at least one first corrugating tooth , characterized in that in order to reduce corrugating roll operation-related vibrations, e) the at least one first corrugating tooth has a first crest curvature and the at least one second corrugating tooth (38; 38a; 38b) has a second crest curvature, wherein the first crest curvature and the second crest curvature, at least regionally, are different, and/or f) the at least one first corrugating tooth has at least one first flank and the at least one second corrugating tooth (38; 38a; 38b; 38c; 38d; 38e) has at least one second flank (35, 36; 35a, 36a; 36b; 35c, 36c; 35d, 36d; 35e), wherein the at least one first flank and the at least one second flank (35, 36; 35a, 36a; 36b; 35c, 36c; 35d, 36d; 35e), at least regionally, differ from each other in their course. a) with a corrugating roll body , b) with a central longitudinal axis , c) with a peripheral direction about the central longitudinal axis , and d) with a surface fluting (30; 30a; 30b; 30c; 30d; 30e), which has i) at least one first corrugating tooth , arranged peripherally on the corrugating roll body , and ii) at least one second corrugating tooth (38; 38a; 38b; 38c; 38d; 38e), which is arranged peripherally on the corrugating roll body and which differs from the at least one first corrugating tooth , characterized in that in order to reduce corrugating roll operation-related vibrations, i) at least one first corrugating tooth , arranged peripherally on the corrugating roll body , and ii) at least one second corrugating tooth (38; 38a; 38b; 38c; 38d; 38e), which is arranged peripherally on the corrugating roll body and which differs from the at least one first corrugating tooth , e) the at least one first corrugating tooth has a first crest curvature and the at least one second corrugating tooth (38; 38a; 38b) has a second crest curvature, wherein the first crest curvature and the second crest curvature, at least regionally, are different, and/or f) the at least one first corrugating tooth has at least one first flank and the at least one second corrugating tooth (38; 38a; 38b; 38c; 38d; 38e) has at least one second flank (35, 36; 35a, 36a; 36b; 35c, 36c; 35d, 36d; 35e), wherein the at least one first flank and the at least one second flank (35, 36; 35a, 36a; 36b; 35c, 36c; 35d, 36d; 35e), at least regionally, differ from each other in their course.
A fibre optic cable for distributed fibre optic sensing having a longitudinal cable axis comprising; at least one optical fibre ; a compliant core material mechanically coupled to the at least one optical fibre such that a longitudinal force acting on the compliant core material induces a longitudinal strain in the at least one optical fibre ; and at least one deformable strain transformer coupled to the compliant core material , characterized in that the at least one strain transformer comprises at least one helically coiled member (304a-d, 601a-b) and is configured such that a force acting on the helically coiled member of the strain transformer in a direction transverse to the cable axis results in a deformation of the helically coiled member of the strain transformer thereby applying a longitudinal force to the compliant core material .
A spot welded member, comprising a spot weld formed by holding a sheet stack of multiple steel sheets between a pair of electrodes and spot-welding the sheet stack, wherein at least one of the multiple steel sheets is a high-strength zinc-based coated steel sheet having a tensile strength of 780 MPa or more, the high-strength zinc-based coated steel sheet having a coating with an Al content of 0.5% or more by mass, and wherein a heat shock region of the spot weld outwardly extending from an edge of a corona bond area to a position 0.2 mm from the corona bond area, includes a coated layer including an FeAl alloy layer having an average thickness of 0.3 μm or more and a zinc-based coated layer having an average thickness of 2.0 μm or more on the FeAl alloy layer at an interface between a base steel sheet of the high-strength zinc-based coated steel sheet and the coating, wherein the FeAl alloy layer is an intermetallic compound phase containing Fe: 30% or more by mass and Al: 30% or more by mass, wherein the average thicknesses of the FeAl alloy layer and the zinc-based coated layer are measured according to the methods described in the description, and wherein the high-strength zinc-based coated steel sheet has a component composition containing, by mass %: C: 0.01% to 0.22%, Si: 0.02% to 2.00%, Mn: 1.0% to 4.0%, P: 0.060% or less, and S: 0.01% or less, optionally, by mass %, one or two or more selected from the group consisting of: Nb: 0.002% to 0.100%, Ti: 0.002% to 0.100%, and B: 0.0002% to 0.0050%, the remainder being Fe and inevitable impurities. wherein at least one of the multiple steel sheets is a high-strength zinc-based coated steel sheet having a tensile strength of 780 MPa or more, the high-strength zinc-based coated steel sheet having a coating with an Al content of 0.5% or more by mass, and wherein a heat shock region of the spot weld outwardly extending from an edge of a corona bond area to a position 0.2 mm from the corona bond area, includes a coated layer including an FeAl alloy layer having an average thickness of 0.3 μm or more and a zinc-based coated layer having an average thickness of 2.0 μm or more on the FeAl alloy layer at an interface between a base steel sheet of the high-strength zinc-based coated steel sheet and the coating, wherein the FeAl alloy layer is an intermetallic compound phase containing Fe: 30% or more by mass and Al: 30% or more by mass, wherein the average thicknesses of the FeAl alloy layer and the zinc-based coated layer are measured according to the methods described in the description, and wherein the high-strength zinc-based coated steel sheet has a component composition containing, by mass %: C: 0.01% to 0.22%, Si: 0.02% to 2.00%, Mn: 1.0% to 4.0%, P: 0.060% or less, and S: 0.01% or less, C: 0.01% to 0.22%, Si: 0.02% to 2.00%, Mn: 1.0% to 4.0%, P: 0.060% or less, and S: 0.01% or less, optionally, by mass %, one or two or more selected from the group consisting of: Nb: 0.002% to 0.100%, Ti: 0.002% to 0.100%, and B: 0.0002% to 0.0050%, Nb: 0.002% to 0.100%, Ti: 0.002% to 0.100%, and B: 0.0002% to 0.0050%, the remainder being Fe and inevitable impurities.
A method for separating plastic and cellulose from post-consumer absorbent sanitary products, comprising: - sterilizing successive batches of post-consumer absorbent sanitary products in at least one rotary autoclave , - shredding the sterilized absorbent sanitary products and obtaining sterilized and shredded material containing plastic and cellulose, - drying the sterilized and shredded material containing plastic and cellulose, and - separating cellulose from plastic from said sterilized, shredded and dried material in at least one centrifugal separator . - sterilizing successive batches of post-consumer absorbent sanitary products in at least one rotary autoclave , - shredding the sterilized absorbent sanitary products and obtaining sterilized and shredded material containing plastic and cellulose, - drying the sterilized and shredded material containing plastic and cellulose, and - separating cellulose from plastic from said sterilized, shredded and dried material in at least one centrifugal separator .
Arrangement for illumination in a machine vision application, wherein the arrangement comprises lighting means , with at least one light source that emits light (L) with a radiant power (P), characterized in that the arrangement comprises an optical covering for protection of the lighting means , which is configured such that a transmitted component (t2) of the incident light (L) passes through the optical covering and a reflected component (r2) of the incident light (L) is reflected in the optical covering , in that the arrangement comprises a light sensor , which detects the intensity (Ir2) of the reflected component (r2) in the optical covering and in that the arrangement comprises a control unit , wherein the control unit is connected to the light sensor and the light source and is configured to control the radiant power (P) of the light source by means of a control variable (I) based on the intensity (Ir2) of the reflected component (r2) in order to use the transmitted component (t2) to adjust an irradiance (P') in an illuminated area .
Equipment for twisting crankshafts (A), characterized in that it comprises at least three twisting modules , where each twisting module comprises an upper tool and a lower tool (1"), where said tools (1', 1") have an inner face by means of which they are facing one another, each tool (1', 1") having on said inner face a cavity the geometry of which corresponds with a portion of the outer shape of a crankpin of the crankshaft (A) to be twisted, such that the cavity defined by the facing tools (1', 1") of one and the same twisting module corresponds with the complete outer shape of the crankpin, where the tools (1', 1") of each twisting module are arranged on a supporting element , where at least two supporting elements can rotate independently with respect to an axis of rotation coinciding with a longitudinal axis (A') of the crankshaft (A) when said crankshaft (A) is arranged in the equipment, characterized in that the tools (1', 1") of each twisting module can only effect a linear displacement with respect to the supporting element in which they are arranged, said linear displacement being perpendicular to the axis of rotation .
Crane for lifting and transporting loads, comprising: - a base frame , for transferring the loads of the crane onto a support surface by means of contact means arranged in contact with said surface, such as wheels ; - a lifting mechanism to lift and transport loads, associated with said base frame ; the crane being characterised in that it has a roll-over protection system comprising: - a first portion and a second portion of the base frame , mutually hinged to one another and capable of rotating around a hinge , the first and the second portion being also constrained by at least one elastic means , the deformation of the elastic means being linked to the mutual angular position of the first portion the second portion , and - a control system for detecting the mutual position between the first and the second portion and carrying out predetermined tasks of the crane when said mutual position reaches a threshold condition. - a base frame , for transferring the loads of the crane onto a support surface by means of contact means arranged in contact with said surface, such as wheels ; - a lifting mechanism to lift and transport loads, associated with said base frame ; - a first portion and a second portion of the base frame , mutually hinged to one another and capable of rotating around a hinge , the first and the second portion being also constrained by at least one elastic means , the deformation of the elastic means being linked to the mutual angular position of the first portion the second portion , and - a control system for detecting the mutual position between the first and the second portion and carrying out predetermined tasks of the crane when said mutual position reaches a threshold condition.
A honeycomb filter comprising a plurality of cells for allowing exhaust gas to flow therethrough, the cells including exhaust gas introduction cells and exhaust gas emission cells, and porous cell walls defining rims of the plurality of cells, the honeycomb filter having a round cross sectional shape, the exhaust gas introduction cells each having an open end at an exhaust gas introduction side and a plugged end at an exhaust gas emission side, the exhaust gas emission cells each having an open end at the exhaust gas emission side and a plugged end at the exhaust gas introduction side, wherein the honeycomb filter has a ratio of the length to the diameter (length/diameter) of less than 1.0; the exhaust gas introduction cells and the exhaust gas emission cells each having a uniform cross sectional shape except for the plugged portion in a direction perpendicular to the longitudinal direction of the cells thoroughly from the end at the exhaust gas introduction side to the end at the exhaust gas emission side; the exhaust gas introduction cells include first exhaust gas introduction cells and second exhaust gas introduction cells each having a larger cross sectional area than each first exhaust gas introduction cell in a direction perpendicular to the longitudinal direction of the cells; each exhaust gas emission cell has a cross sectional area equal in size to each second exhaust gas introduction cell in a direction perpendicular to the longitudinal direction of the cells, the total volume of the exhaust gas introduction cells is larger than the total volume of the exhaust gas emission cells, wherein each exhaust gas emission cell is adjacently surrounded fully by the exhaust gas introduction cells across the porous cell walls, and in the cross section perpendicular to the longitudinal direction of the cells, the exhaust gas introduction cells and the exhaust gas emission cells are each polygonal, and a side forming the cross sectional shape of each first exhaust gas introduction cell faces one of the exhaust gas emission cells, a side forming the cross sectional shape of each second exhaust gas introduction cell faces one of the exhaust gas emission cells, and the side of the first exhaust gas introduction cell is longer than the side of the second exhaust gas introduction cell, wherein, in the cross section perpendicular to the longitudinal direction of the cells, the exhaust gas emission cells are each octagonal, the first exhaust gas introduction cells are each square, and the second exhaust gas introduction cells are each octagonal.
A method for 3GPP-WLAN aggregation, comprising: receiving , by a wireless network device, an aggregation request message sent from an access network element; determining , by the wireless network device, an aggregation request result according to a content of the aggregation request message; and sending , by the wireless network device, the aggregation request result to the access network element, wherein the aggregation request message comprises one of: a request message for establishing a wireless network element and a request message for modifying the wireless network element; characterized in that , when the aggregation request message is the request message for modifying the wireless network element, the aggregation request message comprises at least one of identification information for identifying a User Equipment UE, information indicating a reason for modifying the wireless network element, information of a serving Public Land Mobile Network PLMN, or a maximum rate information requested by the aggregation; when the aggregation request message is the request message for establishing the wireless network element, the aggregation request message comprises at least one of identification information for identifying the User Equipment UE, information of requesting a bearer to be offloaded, the Public Land Mobile Network PLMN information selected for aggregation, or the maximum rate information requested by the aggregation. receiving , by a wireless network device, an aggregation request message sent from an access network element; determining , by the wireless network device, an aggregation request result according to a content of the aggregation request message; and sending , by the wireless network device, the aggregation request result to the access network element, wherein the aggregation request message comprises one of: a request message for establishing a wireless network element and a request message for modifying the wireless network element; characterized in that , when the aggregation request message is the request message for modifying the wireless network element, the aggregation request message comprises at least one of identification information for identifying a User Equipment UE, information indicating a reason for modifying the wireless network element, information of a serving Public Land Mobile Network PLMN, or a maximum rate information requested by the aggregation; when the aggregation request message is the request message for establishing the wireless network element, the aggregation request message comprises at least one of identification information for identifying the User Equipment UE, information of requesting a bearer to be offloaded, the Public Land Mobile Network PLMN information selected for aggregation, or the maximum rate information requested by the aggregation.
A two-part adhesive system comprising an acrylate monomer and a reducing agent in one part and an oxidizing agent in a second part, wherein a tri-functional isocyanate and an active hydrogen compound are separated into each of the two parts and wherein the reducing agent is a tertiary amine.
A spray nozzle comprising: a nozzle including a supply port receiving liquid and a spray orifice through which liquid is sprayed, wherein the nozzle is made by combining a plurality of nozzle-divided bodies , each of the plurality of nozzle-divided bodies has a vane element integrally formed therein to rotate the liquid provided from the supply port , characterized in that each of the nozzle-divided bodies is provided with a flow path element and each of the vane elements is provided with a blocking portion which extends obliquely with respect to the direction of a flow path in order to block the liquid flowing in the flow path formed by combining flow path elements and make fluid flowing along the blocking portion into a swirling flow. a nozzle including a supply port receiving liquid and a spray orifice through which liquid is sprayed, wherein the nozzle is made by combining a plurality of nozzle-divided bodies , each of the plurality of nozzle-divided bodies has a vane element integrally formed therein to rotate the liquid provided from the supply port , characterized in that each of the nozzle-divided bodies is provided with a flow path element and each of the vane elements is provided with a blocking portion which extends obliquely with respect to the direction of a flow path in order to block the liquid flowing in the flow path formed by combining flow path elements and make fluid flowing along the blocking portion into a swirling flow.
A flow communication unit comprising: - a proximal hollow needle adapted to penetrate a needle-penetrable septum, - a first flow way in flow communication with the proximal needle and comprising pressure-controlled valve means , - a second flow way in flow communication with the first flow way, - an amount of preservative arranged to react with a substance received by the second flow way, and - distal flow communication means adapted to provide flow communication between the second flow way and a flow conducting device flow inlet , wherein the valve means is controlled to open when the proximal hollow needle is pressurized. - a proximal hollow needle adapted to penetrate a needle-penetrable septum, - a first flow way in flow communication with the proximal needle and comprising pressure-controlled valve means , - a second flow way in flow communication with the first flow way, - an amount of preservative arranged to react with a substance received by the second flow way, and - distal flow communication means adapted to provide flow communication between the second flow way and a flow conducting device flow inlet ,
A method for controlling data transmission, wherein the method comprises: receiving (S100), by a user equipment, UE, at least one transmission control parameter transmitted by a base station, wherein the transmission control parameter carries at least one radio bearer, RB, identifier and a parameter instruction for controlling deferred triggering, wherein the RB identifier identifies a to-be-controlled RB, and wherein the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a buffer status report, BSR, for a predetermined time when a BSR trigger condition is met, or the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a scheduling request, SR, for a predetermined time when an SR trigger condition is met, or the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a random access, RA, for a predetermined time when an RA trigger condition is met; and when the UE needs to initiate data transmission to the base station, applying (S 101), by the UE, the transmission control parameter to control data transmission. receiving (S100), by a user equipment, UE, at least one transmission control parameter transmitted by a base station, wherein the transmission control parameter carries at least one radio bearer, RB, identifier and a parameter instruction for controlling deferred triggering, wherein the RB identifier identifies a to-be-controlled RB, and wherein the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a buffer status report, BSR, for a predetermined time when a BSR trigger condition is met, or the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a scheduling request, SR, for a predetermined time when an SR trigger condition is met, or the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a random access, RA, for a predetermined time when an RA trigger condition is met; and when the UE needs to initiate data transmission to the base station, applying (S 101), by the UE, the transmission control parameter to control data transmission.
Power supply system for a load, comprising an asynchronous generator comprising a cage rotor intended to be driven by a motor means and a rectifier capable of rectifying the voltage delivered by the generator to power the load with continuous voltage, the rectifier being a rectifier with unidirectional electronic components and comprising a source of reactive power for the magnetisation of the asynchronous generator, the source of reactive power including a variable source of reactive power and a fixed source of reactive power , characterised in that the variable source of reactive power comprises a voltage undulator with insulated-gate bipolar transistors and at least one capacitor , the variable source of reactive power and the fixed source of reactive power being disposed in parallel and in bypass with respect to the generator and the rectifier .