mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a heating body (8, 9, 10, 11), having at least two heating elements (12, 13) arranged adjacent to one another, for a cooking appliance, wherein the heating elements (12, 13) are arranged adjacent to one another such that a first of the heating elements is arranged at least partially radially circumferential relative to a second of the heating elements, wherein a temperature limiter unit assigned to the heating body (8, 9, 10, 11) switches off the heating elements (12, 13) when a predetermined maximum first temperature ( T max) is reached and wherein the heating elements (12, 13) are operated such that the second heating element provides a lower average thermal surface power density than the first heating element, characterised in that the temperature limiter unit switches on the heating elements (12, 13) when a predetermined minimum second temperature (Tmin) is not reached such that for operating a predetermined average thermal heating power the heating elements (12, 13) are applied with electrical energy in a clocked manner by means of a shared, adjustable clock generator, wherein the operation of the second heating element is carried out by evaluating a separate switching contact of the temperature limiter unit.
A single valve compression release bridge brake, comprising a braking piston integrated into a valve bridge of an engine, the valve bridge being located under one end of a rocker arm of the engine, the other end of the rocker arm is driven by a cam of the engine, the cam comprising at least one braking cam lobe (232, 233), the valve bridge including an inner end closer to the cam and an outer end farther from the cam, under the inner end of the valve bridge the engine having an inner exhaust valve, and under the outer end of the valve bridge the engine having an outer exhaust valve; and a braking piston bore in the valve bridge, said braking piston being slidably disposed in the braking piston bore, the braking piston bore opening downwards from the inner end of the valve bridge, a lower side of the braking piston being connected to the inner exhaust valve, and an exhaust lash compensation mechanism that includes a lash compensation piston which is slidably disposed in a lash compensation piston bore in the center of the valve bridge and a lash compensation spring, wherein during engine braking operation, the inner end of the valve bridge above the braking piston being pushed upwards against the rocker arm or a connecting mechanism on the rocker arm by pressure of engine oil in the braking piston bore acting on the braking piston to form a hydraulic linkage between the braking piston and the inner end of the valve bridge, the braking cam lobe (232, 233) opening the inner exhaust valve through the rocker arm, the inner end of the valve bridge, the hydraulic linkage, and the braking piston for the single valve compression release engine braking and the motion of the braking cam lobe (232, 233) is not transmitted to the outer exhaust valve due to the exhaust lash compensation mechanism and wherein said exhaust lash compensation mechanism forms an exhaust lash in the engine's exhaust valve drive train.
A piston assembly comprising: a piston cross-member comprising a first end disposed opposite a second end; a first cap disposed on the first end of the piston cross-member; a second cap disposed on the second end of the piston cross-member; a slot formed in the piston cross-member transverse to a length of the piston cross-member; and an insert disposed in the slot, wherein the insert is a wear article configured to contact a crank; and characterized in that the insert is U-shaped, and comprises a C-channel cross-sectional profile. a piston cross-member comprising a first end disposed opposite a second end; a first cap disposed on the first end of the piston cross-member; a second cap disposed on the second end of the piston cross-member; a slot formed in the piston cross-member transverse to a length of the piston cross-member; and an insert disposed in the slot, wherein the insert is a wear article configured to contact a crank; and characterized in that the insert is U-shaped, and comprises a C-channel cross-sectional profile.
Sliding door fitting having two profiles (3a, 3b) which are connected to one another at a joint via a profile connection (10, 50, 60) and which form at least one track (32, 33) for rollers or sliding bodies of a movable running part, the profile connection (10, 50, 60) having a support part (11, 51, 61) which is fixed to the profiles (3a, 3b) and a tensioning element (13, 53, 63) which can be moved relative to the support part (11, 51, 61) via a tensioning mechanism and which pretensions the two profiles (3a, 3b) towards the support part (11, 51, 61), characterized in that the profiles (3a, 3b) have at least two tracks (32, 33) lying one above the other in the installation position and the tensioning element (13, 53, 63) bears against an underside of the lower track.
A safety door system provided at a platform of a train station, the safety door system comprising a plurality of lifting mechanisms each including: a main body provided at selected positions from an inlet to an outlet of the platform; a driving unit provided at an inside or an outside of the main body; a second rotor rotating in response to an operation of the driving unit; a third rotor connected to one side of the second rotor and a diameter of which is larger or smaller than that of the second rotor; a plurality of motion blocks moved up and down along the main body in response to the operation of the driving unit so as to overlap with and be separated from each other, respectively; a plurality of ropes horizontally connecting the motion blocks to each other to allow a safety door to be opened or closed; a plurality of multi-stage blocks to which the ropes are horizontally connected so that the multi-stage blocks are moved up and down along the main body; and an interworking unit configured to, when the motion blocks are moved up and down, enable the multi-stage blocks to be moved up and down, thereby overlapping with and being separated from the blocks, respectively, wherein a rail is provided in the main body in a vertical direction so as to guide a motion of the motion blocks and the multi-stage blocks, and wherein the rail is integrally provided with first support sections and second support sections on opposite sides of a middle part and a front part of the rail as viewed in a plan view to guide the motion blocks and the multi-stage blocks, respectively. a main body provided at selected positions from an inlet to an outlet of the platform; a driving unit provided at an inside or an outside of the main body; a second rotor rotating in response to an operation of the driving unit; a third rotor connected to one side of the second rotor and a diameter of which is larger or smaller than that of the second rotor; a plurality of motion blocks moved up and down along the main body in response to the operation of the driving unit so as to overlap with and be separated from each other, respectively; a plurality of ropes horizontally connecting the motion blocks to each other to allow a safety door to be opened or closed; a plurality of multi-stage blocks to which the ropes are horizontally connected so that the multi-stage blocks are moved up and down along the main body; and an interworking unit configured to, when the motion blocks are moved up and down, enable the multi-stage blocks to be moved up and down, thereby overlapping with and being separated from the blocks, respectively, wherein a rail is provided in the main body in a vertical direction so as to guide a motion of the motion blocks and the multi-stage blocks, and wherein the rail is integrally provided with first support sections and second support sections on opposite sides of a middle part and a front part of the rail as viewed in a plan view to guide the motion blocks and the multi-stage blocks, respectively.
A milling tool (21; 121), comprising: a shaft portion comprising a first passage (25; 125) extending from a first end of the shaft portion; a head portion (31; 131) coaxial with the shaft portion, the head portion (31; 131) extending radially outwardly from the shaft portion, the head portion (31; 131) comprising two flank surfaces (33, 35, 35'; 133, 135) and an outer peripheral edge (37; 137) between the flank surfaces (33, 35, 35'; 133, 135), the outer peripheral edge (37; 137) comprising at least one recess (39; 139a, 139b) in which at least one cutting insert is mountable, wherein at least one second passage (49; 149a, 149b) extending between and remote from the flank surfaces (33, 35, 35'; 133, 135) of the head portion (31; 131) from the first passage (25; 125) to proximate the at least one recess (39; 139a, 139b); and wherein a bolt extends along substantially an entire length of the first passage (25; 125); characterized in that a head of the bolt and a wall of the first passage (25; 125) define an annular space. a shaft portion comprising a first passage (25; 125) extending from a first end of the shaft portion; a head portion (31; 131) coaxial with the shaft portion, the head portion (31; 131) extending radially outwardly from the shaft portion, the head portion (31; 131) comprising two flank surfaces (33, 35, 35'; 133, 135) and an outer peripheral edge (37; 137) between the flank surfaces (33, 35, 35'; 133, 135), the outer peripheral edge (37; 137) comprising at least one recess (39; 139a, 139b) in which at least one cutting insert is mountable, wherein at least one second passage (49; 149a, 149b) extending between and remote from the flank surfaces (33, 35, 35'; 133, 135) of the head portion (31; 131) from the first passage (25; 125) to proximate the at least one recess (39; 139a, 139b); and wherein a bolt extends along substantially an entire length of the first passage (25; 125); characterized in that a head of the bolt and a wall of the first passage (25; 125) define an annular space.
A razor handle comprising: a main body; a pivoting head pivotally coupled with the main body about a first axis of rotation; a severable benefit delivery member, extending from a main body connection on said main body to a pivoting head connection on said pivoting head, said benefit delivery member providing a first biasing torque on said pivoting head to affect an angular deflection about said first axis of rotation of said pivoting head relative to said main body, a spring member extending from a spring-main-body connection on said main body to a spring-pivoting-head connection on said pivoting head, said spring member applying a second biasing torque to affect an angular deflection about said first axis of rotation of said pivoting head relative to said main body; and wherein a ratio of the sum of said first and second pivoting torques divided by said angular deflection in radians to said second pivoting torque divided by said angular deflection in radians of said pivoting head with said pivot benefit delivery connection severed is greater than 2. a main body; a pivoting head pivotally coupled with the main body about a first axis of rotation; a severable benefit delivery member, extending from a main body connection on said main body to a pivoting head connection on said pivoting head, said benefit delivery member providing a first biasing torque on said pivoting head to affect an angular deflection about said first axis of rotation of said pivoting head relative to said main body, a spring member extending from a spring-main-body connection on said main body to a spring-pivoting-head connection on said pivoting head, said spring member applying a second biasing torque to affect an angular deflection about said first axis of rotation of said pivoting head relative to said main body; and wherein a ratio of the sum of said first and second pivoting torques divided by said angular deflection in radians to said second pivoting torque divided by said angular deflection in radians of said pivoting head with said pivot benefit delivery connection severed is greater than 2.
An apparatus, comprising: a cable comprising a plurality of wires; a plurality of cooling channels external to the cable; an air mover connected to the plurality of cooling channels, the air mover being arranged external to the cable in that the air mover housing is separate from and external to a housing of the cable and that the air mover receives power in a manner other than being connected to a power wire carried by the cable, and is configured to generate forced air and to provide the forced air to the plurality of cooling channels; and a connector located at an end of the cable to connect the wires and the plurality of cooling channels to a mobile computing device to provide the forced air thereinto for passing over at least one device component of the mobile computing device to absorb heat generated by at least one device component, wherein the air mover is arranged at a point along the cable that is proximate to the end of the cable comprising the connector. a cable comprising a plurality of wires; a plurality of cooling channels external to the cable; an air mover connected to the plurality of cooling channels, the air mover being arranged external to the cable in that the air mover housing is separate from and external to a housing of the cable and that the air mover receives power in a manner other than being connected to a power wire carried by the cable, and is configured to generate forced air and to provide the forced air to the plurality of cooling channels; and a connector located at an end of the cable to connect the wires and the plurality of cooling channels to a mobile computing device to provide the forced air thereinto for passing over at least one device component of the mobile computing device to absorb heat generated by at least one device component, wherein the air mover is arranged at a point along the cable that is proximate to the end of the cable comprising the connector.
A method for execution by an application server capable of being accessed by a communication device that is registered with a service provider having a certain domain, the communication device being registered to a customer, the method comprising: receiving a request to execute an application, the request being received from the communication device over a communication channel at least partly not within the domain of the service provider; redirecting the communication device to a first server to obtain an anonymous token from the first server, the first server being within the domain of the service provider; receiving the anonymous token comprising a service-provider-specific subscriber identifier or a random number and lacking information that would allow information regarding the customer to be ascertained by an entity not within the domain of the service provider, from the communication device over the communication channel; providing the token to a second server within the domain of the service provider; and executing the application based on information about the communication device released by the second server in response to the token. receiving a request to execute an application, the request being received from the communication device over a communication channel at least partly not within the domain of the service provider; redirecting the communication device to a first server to obtain an anonymous token from the first server, the first server being within the domain of the service provider; receiving the anonymous token comprising a service-provider-specific subscriber identifier or a random number and lacking information that would allow information regarding the customer to be ascertained by an entity not within the domain of the service provider, from the communication device over the communication channel; providing the token to a second server within the domain of the service provider; and executing the application based on information about the communication device released by the second server in response to the token.
A solid nanocomposite material consisting of a polymer-matrix in which are dispersed alkali metal, hydronium or ammonium salts, notably alkali metal salts of polyanionic metal clusters, the ammonium being a NR 1 R 2 R 3 R 4 + cation, wherein R 1 to R 4 represent, independently of each other, a hydrogen atom or a C 1 -C 6 alkyl group, wherein the polymer-matrix comprises at least a linear or branched polymer or copolymer containing one or several poly(ethylene oxide) chains, said polymer or copolymer being optionally crosslinked and each PEO chain having at least 4 ethylene oxide monomer units, and wherein the salts of polyanionic metal clusters interact with the polymer-matrix solely by means of weak interactions in between the alkali metal, hydronium or ammonium cation and the PEO chains of polymer or copolymer.
A naphthalocyanine dye represented by one of the general structures I to XV: wherein: - R 1 is H or an alkyl group or a substituted alkyl group or X 1; - R 2 is, independently, Na, H, an alkyl group or a substituted alkyl group containing from 1 to 20 carbon atoms; or an aryl group or a substituted aryl group with a maximum of 5 benzene units; - R 3 is, independently, NH 2, SH, an alkyl group or a substituted alkyl group containing from 1 to 20 carbons atoms; or an aryl group or a substituted aryl group with a maximum of 5 benzene units; - M is a monovalent, a divalent, a trivalent, a tetravalent or a pentavalent metal ion or transition metal ion; - X and X 1 are, independently, selected from OH, OCOR, COOZ, SO 3 Z, PO 3 Z 2, NR 3 + Y -, and (CH 2 CH 2 O) m CH 3, wherein Z is independently selected from H, a monovalent metal ion, and NR 4 +; wherein R is independently selected from H, an alkyl group, a substituted alkyl group, an aryl group and a substituted aryl group; wherein Y is independently selected from a halogen, sulfate, sulfonate, OH, OSO 3 Z, and OCOR, and wherein m ranges from 1 to 500. - R 1 is H or an alkyl group or a substituted alkyl group or X 1; - R 2 is, independently, Na, H, an alkyl group or a substituted alkyl group containing from 1 to 20 carbon atoms; or an aryl group or a substituted aryl group with a maximum of 5 benzene units; - R 3 is, independently, NH 2, SH, an alkyl group or a substituted alkyl group containing from 1 to 20 carbons atoms; or an aryl group or a substituted aryl group with a maximum of 5 benzene units; - M is a monovalent, a divalent, a trivalent, a tetravalent or a pentavalent metal ion or transition metal ion; - X and X 1 are, independently, selected from OH, OCOR, COOZ, SO 3 Z, PO 3 Z 2, NR 3 + Y -, and (CH 2 CH 2 O) m CH 3, wherein Z is independently selected from H, a monovalent metal ion, and NR 4 +; wherein R is independently selected from H, an alkyl group, a substituted alkyl group, an aryl group and a substituted aryl group; wherein Y is independently selected from a halogen, sulfate, sulfonate, OH, OSO 3 Z, and OCOR, and wherein m ranges from 1 to 500.
A circuit arrangement comprising a plurality of functional units (210, 220, 230; 400; 510, 520, 530) of a system-on-chip that are coupled by at least two streaming data buses, each of said functional units comprising a plurality of hardware modules (212, 213, 222, 223, 232, 233; 512, 513, 522, 523, 532, 533) and a switch matrix (211, 221, 231; 41; 511, 521, 531), wherein the switch matrices have at least two streaming data inputs and at least two streaming data outputs and are connected between streaming data inputs and streaming data outputs of the respective functional unit and are further coupled to each of said hardware modules so that by configuring the switch matrices streaming data paths are established between and through the plurality of functional units; the plurality of functional units (400; 510, 520, 530) are coupled by a first streaming data bus for normal processing operation and a second streaming data bus for use as a test link, wherein the second streaming data bus has a data width of at least that of the widest hardware module of any of the functional units of the circuit arrangement; wherein the switch matrices (511, 521, 531) are configured to establish a first streaming data path for streaming processing data through the circuit arrangement and to establish a broadcast connection at an output of a module to be tested so that downstream said module to be tested streaming data are supplied to both said first streaming data path for normal processing operation, and to the second streaming data path for detecting test data from said module to be tested under real-time processing conditions at a trace output of said second streaming data bus.
Boom for a construction machine, with a boom arm which can be mounted at its lower end with a lower boom arm region on a carrier implement and has at its upper end in an upper boom arm region a suspension means for a working apparatus, wherein on the boom arm in a center region arranged between the lower boom arm region and the upper boom arm region at least one hose drum for a hose line is rotatably supported, characterized in that in the center region of the boom arm a fork-like arrangement for forming a free space is provided which is designed for receiving the at least one hose drum along a longitudinal axis of the boom arm and is delimited by two opposite side walls of the boom arm, on which the at least one hose drum is rotatably supported, wherein the at least one hose drum projects from the free space with respect to a front side directed towards the working apparatus and a rear side of the boom arm directed towards the carrier implement.
An insulated wire comprising: a conductor; a foamed insulating layer containing a thermosetting resin having cells, coated directly or indirectly onto the outer periphery of the conductor; and an outer insulating layer containing a thermoplastic resin having a melting point of 240°C or higher in the case where the thermoplastic resin is a crystalline resin or a thermoplastic resin having a glass transition temperature of 240°C or higher in the case where the thermoplastic resin is a non-crystalline resin, on the outer side of the foamed insulating layer. a conductor; a foamed insulating layer containing a thermosetting resin having cells, coated directly or indirectly onto the outer periphery of the conductor; and an outer insulating layer containing a thermoplastic resin having a melting point of 240°C or higher in the case where the thermoplastic resin is a crystalline resin or a thermoplastic resin having a glass transition temperature of 240°C or higher in the case where the thermoplastic resin is a non-crystalline resin, on the outer side of the foamed insulating layer.
Latching fitting, in particular for installing on a pull-out guide, having a switching element which can be displaced along a switching curve, wherein the switching element can be latched on the switching curve in a closed position and is prestressed into the latched position via an energy store, characterized by the arrangement, on the switching curve, of at least one switching lug (16, 17, 30), which the switching element can pass in a predetermined through-passage direction and which blocks the switching element counter to the predetermined through-passage direction.