mhurhangee/patent-ind-claim-en huggingface dataset:
A cutting mechanism for a dunnage conversion machine that selectively cuts dunnage sheet stock drawable through the cutting mechanism , the cutting mechanism comprising: a frame supporting opposed blades for cutting the sheet stock; and the opposed blades including a driven blade having a driven cutting edge and a biased blade having a biased cutting edge movable relative to one another, the driven cutting edge movable across a sheet stock path along which the dunnage sheet stock is movable between a ready position and a cut position removed from the ready position and in contact with the biased cutting edge , and the biased blade being biased toward the driven blade , and each of the driven cutting edge and the biased cutting edge are linear edges; wherein the biased cutting edge is biased across a movement path of the driven cutting edge when the driven cutting edge is in the ready position; and contact of the driven cutting edge with the biased cutting edge effects movement of the biased cutting edge out of a movement path of the driven cutting edge ; characterized in that the biased cutting edge is pivotably biased towards the driven cutting edge such that contact of the opposed blades with one another occurs at a shear point that traverses an edge length of the biased cutting edge as the driven cutting edge moves between the ready position and the cut position to cut the sheet stock. a frame supporting opposed blades for cutting the sheet stock; and the opposed blades including a driven blade having a driven cutting edge and a biased blade having a biased cutting edge movable relative to one another, the driven cutting edge movable across a sheet stock path along which the dunnage sheet stock is movable between a ready position and a cut position removed from the ready position and in contact with the biased cutting edge , and the biased blade being biased toward the driven blade , and each of the driven cutting edge and the biased cutting edge are linear edges; wherein the biased cutting edge is biased across a movement path of the driven cutting edge when the driven cutting edge is in the ready position; and contact of the driven cutting edge with the biased cutting edge effects movement of the biased cutting edge out of a movement path of the driven cutting edge ; characterized in that the biased cutting edge is pivotably biased towards the driven cutting edge such that contact of the opposed blades with one another occurs at a shear point that traverses an edge length of the biased cutting edge as the driven cutting edge moves between the ready position and the cut position to cut the sheet stock.
A transmission apparatus for a communication system, said system comprising the transmission apparatus and a reception apparatus, the transmission apparatus being configured to multiplex data from M channels, M being a natural number equal to or larger than 2, and transmit the data to the reception apparatus, the transmission apparatus comprising: M timing offset units configured to respectively receive inputs of the data from the different channels and insert designated timing offset values in the input data; a multiplexing unit configured to multiplex the M data subjected to the timing offset and output a multiplexed signal; and a timing-offset calculating unit configured to calculate, based on M in the communication system, M being the number of channels, different timing offset values for the respective M timing offset units in order to reduce a PAPR (peak to average power ratio) value during multichannel transmission, and output the calculated timing offset values to the respective timing offset units , characterized in that the timing-offset calculating unit is configured to set an interval between the different timing offset values to Ts/M, where Ts is a time for one symbol. M timing offset units configured to respectively receive inputs of the data from the different channels and insert designated timing offset values in the input data; a multiplexing unit configured to multiplex the M data subjected to the timing offset and output a multiplexed signal; and a timing-offset calculating unit configured to calculate, based on M in the communication system, M being the number of channels, different timing offset values for the respective M timing offset units in order to reduce a PAPR (peak to average power ratio) value during multichannel transmission, and output the calculated timing offset values to the respective timing offset units , characterized in that the timing-offset calculating unit is configured to set an interval between the different timing offset values to Ts/M, where Ts is a time for one symbol.
A gas turbine engine (20; 100) comprising: a primary flowpath (C) fluidly connecting a compressor section (24; 110), a combustor section (26; 110), and a turbine section (28; 130); and a heat exchanger including a first inlet connected to a high pressure compressor bleed , a first outlet connected to a high pressure turbine inlet , wherein the heat exchanger further includes a second inlet fluidly connected to a supercritical CO2 (sCO2) work recovery cycle and a second outlet connected to the sCO2 work recovery cycle and the sCO2 work recovery cycle is a recuperated Brayton cycle , wherein the sCO2 work recovery cycle comprises a turbine having a working fluid turbine inlet connected to the second outlet of the heat exchanger and a spent working fluid turbine outlet connected to a working fluid compressor inlet of a working fluid compressor , the working fluid compressor further including a working fluid compressor outlet connected to the second inlet of the heat exchanger , wherein a fluid pressure at the working fluid compressor inlet is at least a supercritical pressure of a working fluid in the working fluid work recovery cycle during standard operations, characterised in that during standard operations, the fluid pressure and temperature at the working fluid compressor inlet is at or above a peak of a vapor dome of the working fluid in the sCO2 work recovery cycle , allowing sufficient margin such for fluid property and operational fluctuations such that the compressor inlet fluid is not located within the vapor dome . a primary flowpath (C) fluidly connecting a compressor section (24; 110), a combustor section (26; 110), and a turbine section (28; 130); and a heat exchanger including a first inlet connected to a high pressure compressor bleed , a first outlet connected to a high pressure turbine inlet , wherein the heat exchanger further includes a second inlet fluidly connected to a supercritical CO2 (sCO2) work recovery cycle and a second outlet connected to the sCO2 work recovery cycle and the sCO2 work recovery cycle is a recuperated Brayton cycle , wherein the sCO2 work recovery cycle comprises a turbine having a working fluid turbine inlet connected to the second outlet of the heat exchanger and a spent working fluid turbine outlet connected to a working fluid compressor inlet of a working fluid compressor , the working fluid compressor further including a working fluid compressor outlet connected to the second inlet of the heat exchanger , wherein a fluid pressure at the working fluid compressor inlet is at least a supercritical pressure of a working fluid in the working fluid work recovery cycle during standard operations, characterised in that during standard operations, the fluid pressure and temperature at the working fluid compressor inlet is at or above a peak of a vapor dome of the working fluid in the sCO2 work recovery cycle , allowing sufficient margin such for fluid property and operational fluctuations such that the compressor inlet fluid is not located within the vapor dome .
Device for flameless pressure relief - comprising a cover having an inlet opening, wherein the cover surrounds the space apart from the inlet opening, characterised in that , - the device has at least one inner layer of a textile fabric made of metal threads, - the device has at least one outer layer , - the cover is provided as outer layer , wherein the cover is sewn together from several length of textile fabrics, - not only the cover , but also the inner layers have an inlet opening for the admission of gases, dust and/or flames into the space enclosed by the cover and the inner layers , - the inner layers are received in the space completely enclosed by the cover, wherein the inner layers also completely enclose the space apart from an inlet opening, and - the device has a support framework, wherein - the support framework is provided between the at least one inner layer and the cover , or - a plurality of inner layers of the textile fabric made of metal threads are laid on the support framework, wherein the cover as outer layer envelopes the inner layers and the support framework and thereby holds the inner layers in a firm bond with the support framework . - comprising a cover having an inlet opening, wherein the cover surrounds the space apart from the inlet opening, - the device has at least one inner layer of a textile fabric made of metal threads, - the device has at least one outer layer , - the cover is provided as outer layer , wherein the cover is sewn together from several length of textile fabrics, - not only the cover , but also the inner layers have an inlet opening for the admission of gases, dust and/or flames into the space enclosed by the cover and the inner layers , - the inner layers are received in the space completely enclosed by the cover, wherein the inner layers also completely enclose the space apart from an inlet opening, and - the device has a support framework, wherein - the support framework is provided between the at least one inner layer and the cover , or - a plurality of inner layers of the textile fabric made of metal threads are laid on the support framework, wherein the cover as outer layer envelopes the inner layers and the support framework and thereby holds the inner layers in a firm bond with the support framework .
An IEEE 802.11 wireless transmit/receive unit, WTRU, configured to indicate a channel preference for uplink multi-user, MU, data transmission, the WTRU comprising: a receiver configured to receive, from an access point, AP, a polling frame sent to a group of WTRUs ; a processor configured to generate compressed channel feedback for at least one sub-channel; a transmitter configured to transmit an MU frame including a channel preference element to the AP in response to the received polling frame, the channel preference element including the generated compressed channel feedback; and the receiver configured to receive a channel or group assignment , from the AP, for uplink MU data transmission, based on the channel preference element; wherein the transmitter is configured to transmit the MU frame simultaneously with another MU frame transmitted to the AP by another WTRU of the group of WTRUs. a receiver configured to receive, from an access point, AP, a polling frame sent to a group of WTRUs ; a processor configured to generate compressed channel feedback for at least one sub-channel; a transmitter configured to transmit an MU frame including a channel preference element to the AP in response to the received polling frame, the channel preference element including the generated compressed channel feedback; and the receiver configured to receive a channel or group assignment , from the AP, for uplink MU data transmission, based on the channel preference element; wherein the transmitter is configured to transmit the MU frame simultaneously with another MU frame transmitted to the AP by another WTRU of the group of WTRUs.
Transport system, comprising at least one rail cord tensioned above foundation in spans between supports , in form of a load-bearing member , comprising a longitudinally prestressed isolated load-bearing element (6.1), concreted into a binder layer of the load-bearing member; and conjugated therewith loaded layer with rolling surface (K) for self-powered movable units , characterized in that the load-bearing member with therewith conjugated rolling surface (K) does not have an additional case shell in the form of a body, whereas the loaded layer with rolling surface (K) merges with the binder layer of the load-bearing member and is monolithically coupled with it, while the isolated load-bearing element (6.1) is concreted into the binder layer to depth h 1 , m, - from the rolling surface (K), and to depth h 2 , m, - to its opposite face, defined by the ratios: 0.2 ≤ h 1 / S 1 ≤ 2 , 0.1 ≤ h 2 / S 1 ≤ 1 , where S 1 , m is the height of the isolated load-bearing element (6.1) of the load-bearing member , whereas the ratio of the width A, m, of the load-bearing member to its height H, m, is within the limits: 2 ≤ A / H ≤ 20 , and the width B 1 , m, of the isolated load-bearing element (6.1) is defined by the dependence: 0.5 ≤ B 1 / A ≤ 0.99 where S 1 , m is the height of the isolated load-bearing element (6.1) of the load-bearing member , whereas the ratio of the width A, m, of the load-bearing member to its height H, m, is within the limits: 2 ≤ A / H ≤ 20 , and the width B 1 , m, of the isolated load-bearing element (6.1) is defined by the dependence: 0.5 ≤ B 1 / A ≤ 0.99
A treatment device for a material containing carbon black and originating from a pyrolysis reactor ; the device comprising - a water container for directly receiving the material containing carbon black and originating from the pyrolysis reactor in a water bath , thus yielding a wet material containing carbon black; - at least one wet-milling stage which is configured to reduce an average particle size of carbon black particles in the wet material containing carbon black, the device comprising a wet-milling stage within the water container; and - at least one dehydrating module for dehydrating the wet material containing carbon black or a material derived therefrom following the at least one wet-milling stage . - a water container for directly receiving the material containing carbon black and originating from the pyrolysis reactor in a water bath , thus yielding a wet material containing carbon black; - at least one wet-milling stage which is configured to reduce an average particle size of carbon black particles in the wet material containing carbon black, the device comprising a wet-milling stage within the water container; and - at least one dehydrating module for dehydrating the wet material containing carbon black or a material derived therefrom following the at least one wet-milling stage .
Detergent dosing system for a water-conducting household appliance having a detergent dispenser and at least one cartridge , wherein the detergent dispenser has a receiving compartment for receiving the at least one cartridge , wherein the cartridge has a plurality of chambers (51a, ..., 51e) which are separated from one another for receiving detergent and is embodied to hold at least one detergent, the quantity of detergent that can be held is greater than the quantity required for a wash cycle and the detergent dosing system has an apparatus for optically detecting a fill level in the at least one cartridge , wherein the apparatus for optically detecting the fill level has a light emitter, a light receiver and an optical waveguide , wherein the apparatus for optically detecting the fill level is embodied not to monitor the fill level in all the chambers, but instead just in one chamber (51a, ..., 51e) or in some of the chambers (51a,..., 51e), characterised in that the apparatus for optically detecting the fill level is embodied to infer the global fill level of detergent in the detergent dosing system from this determined information, wherein the optical waveguide has a first coupling surface and a second coupling surface and the light beams from the light emitter can be coupled into the optical waveguide through the first coupling surface and the light beams leaving the optical waveguide can be decoupled through the first coupling surface or the second coupling surface and can be received by the light receiver.
A cable fitting for connecting a high-voltage cable , having a cable conductor and a cable insulation , which encases the cable conductor, to a high-voltage component, the fitting comprising coaxially arranged around an axis (A) a rigid conical insulator, an electrically insulating, elastomeric stress-relief cone matching the rigid conical insulator through a conical interface and an axially aligned current path which connects the cable conductor to a high-voltage current terminal arranged on top of the rigid conical insulator and provided for connection to the high-voltage component, characterized in that the rigid conical insulator is configured as a condenser core and comprises a plurality of electrically conductive field-grading layers which are arranged concentrically around the axis and a rigid polymeric matrix which embeds the field-grading layers, that a section of the cable conductor , which is stripped-off the cable insulation , extends from the conical interface to the high-voltage current terminal and forms the current path, that the condenser core comprises an axially aligned tubular duct which receives the stripped-off section of the cable conductor and which passes two opposing front faces of the condenser core , that a gap in the tubular duct between an outer surface of the cable conductor and an inner surface of the condenser core is filled with an electrically insulating, thermally conductive material, and that the thermally conductive material comprises at least one of a solid, a powder or a gel.
Timepiece assembly comprising a rotating bezel and a device comprising a rapid adjustment spring and a timepiece wheel , said spring cooperating with said wheel , the spring comprising a flexible portion comprising a finger and the finger cooperating with the wheel in such a way as to be displaced relative to the latter through a maximum displacement by a relative movement between the wheel and the spring , and to exert a force against the wheel owing to bending of the flexible portion ; at least the flexible portion of the spring is made of an amorphous metallic alloy; the device cooperates with the rotating bezel ; characterized in that the amorphous metallic alloy constituting at least the flexible portion of the spring has a ratio of elastic limit (σ lim ) to Young's modulus of at least 0.010; and in that the dimensions of the flexible portion limit the ratio of maximum stress (σ max ) to elastic limit (σ lim ) to at most 0.70, preferably at most 0.64, when the finger is displaced on the wheel . at least the flexible portion of the spring is made of an amorphous metallic alloy; the device cooperates with the rotating bezel ; characterized in that the amorphous metallic alloy constituting at least the flexible portion of the spring has a ratio of elastic limit (σ lim ) to Young's modulus of at least 0.010; and in that the dimensions of the flexible portion limit the ratio of maximum stress (σ max ) to elastic limit (σ lim ) to at most 0.70, preferably at most 0.64, when the finger is displaced on the wheel .
Surgical instrument kit comprising at least one rod-shaped drive tool which comprises a shank with a first end and a second end , which is configured for introduction of external forces in the direction of the first end or away therefrom, and an impulse mass for application of the external forces to the second end , wherein the second end and the impulse mass each have a force transmission surface which together form a surface pairing , by way of which the external forces are introducible in the direction of the first end , and are provided with complementary structures by way of which the external forces can be applied in a direction away from the first end , wherein the complementary structures have an introduction surface , which faces the first end , at the second end of the shank of the drive tool and a counter-surface , which can be brought into impacting contact therewith for force introduction, at the impulse mass , wherein the impulse mass has the form of a hammer with a hammer head , the center axis of which defines a first axis of the impulse mass , and a hammer post , the center axis of which defines a second axis , which is different from the first axis , of the impulse mass , and wherein the force transmission surface for the external forces is oriented in the direction of the first end perpendicularly to the first axis , characterized in that the counter-surface for the external forces is oriented in direction away from the first end perpendicularly to the second axis .
A fuselage portion , comprising: a frame ; a floor beam , attached to the frame and comprising ends ; a structural stanchion , comprising a first end and a second end ; a first structural coupling , joining the first end of the structural stanchion and the floor beam ; a second structural coupling , joining the second end of the structural stanchion and the frame ; a non-structural stanchion , comprising a third end and a fourth end , and wherein the non-structural stanchion is laterally inboard of the structural stanchion relative to the ends of the floor beam ; a first non-structural coupling , joining the third end of the non-structural stanchion and the floor beam ; a second non-structural coupling , joining the fourth end of the non-structural stanchion and the frame ; a cargo liner , attached to the non-structural stanchion ; and a first system run , attached to the structural stanchion ; and wherein the structural stanchion supports substantially all load of the floor beam such that the non-structural stanchion does not bear any of the load of the floor beam, thereby facilitating installation and removal of the non-structural stanchion to accommodate installation of the cargo liner and systems. a frame ; a floor beam , attached to the frame and comprising ends ; a structural stanchion , comprising a first end and a second end ; a first structural coupling , joining the first end of the structural stanchion and the floor beam ; a second structural coupling , joining the second end of the structural stanchion and the frame ; a non-structural stanchion , comprising a third end and a fourth end , and wherein the non-structural stanchion is laterally inboard of the structural stanchion relative to the ends of the floor beam ; a first non-structural coupling , joining the third end of the non-structural stanchion and the floor beam ; a second non-structural coupling , joining the fourth end of the non-structural stanchion and the frame ; a cargo liner , attached to the non-structural stanchion ; and a first system run , attached to the structural stanchion ; and wherein the structural stanchion supports substantially all load of the floor beam such that the non-structural stanchion does not bear any of the load of the floor beam, thereby facilitating installation and removal of the non-structural stanchion to accommodate installation of the cargo liner and systems.