mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, at a verifier gateway in a first domain, attestation information in a first domain language from an attester node in the first domain; translating, at the verifier gateway in the first domain, the attestation information into a second domain language of a second domain that is a different administrative domain from the first domain to create translated attestation information; and providing the translated attestation information to a verifier in the second domain, wherein the verifier is configured to verify trustworthiness of the attester node for a relying node in the second domain by identifying a level of trust of the attester node based on the translated attestation information. receiving, at a verifier gateway in a first domain, attestation information in a first domain language from an attester node in the first domain; translating, at the verifier gateway in the first domain, the attestation information into a second domain language of a second domain that is a different administrative domain from the first domain to create translated attestation information; and providing the translated attestation information to a verifier in the second domain, wherein the verifier is configured to verify trustworthiness of the attester node for a relying node in the second domain by identifying a level of trust of the attester node based on the translated attestation information.
A memory structure , comprising: an access line extending along a first direction; a first contact line and a second contact line extending along a second direction different than the first direction, the first and second contact lines being generally parallel to each other; a memory node including: a first memory cell electrically connected between the access line and the first contact line to form a first circuit; a second memory cell electrically connected between the access line and the second contact line to form a second circuit electrically independent from the first circuit; a first rectifier having a first input terminal and a first output terminal; a second rectifier having a second input terminal and a second output terminal; the first input terminal of the first rectifier and the second input terminal of the second rectifier are electrically connected to the access line; the first output terminal of the first rectifier and the second output terminal of the second rectifier are electrically connected to the first and second memory cells, respectively; and a first contact rectifier between the first memory cell and the first contact line. an access line extending along a first direction; a first contact line and a second contact line extending along a second direction different than the first direction, the first and second contact lines being generally parallel to each other; a memory node including: a first memory cell electrically connected between the access line and the first contact line to form a first circuit; a second memory cell electrically connected between the access line and the second contact line to form a second circuit electrically independent from the first circuit; a first rectifier having a first input terminal and a first output terminal; a second rectifier having a second input terminal and a second output terminal; the first input terminal of the first rectifier and the second input terminal of the second rectifier are electrically connected to the access line; the first output terminal of the first rectifier and the second output terminal of the second rectifier are electrically connected to the first and second memory cells, respectively; and a first contact rectifier between the first memory cell and the first contact line. a first memory cell electrically connected between the access line and the first contact line to form a first circuit; a second memory cell electrically connected between the access line and the second contact line to form a second circuit electrically independent from the first circuit; a first rectifier having a first input terminal and a first output terminal; a second rectifier having a second input terminal and a second output terminal; the first input terminal of the first rectifier and the second input terminal of the second rectifier are electrically connected to the access line; the first output terminal of the first rectifier and the second output terminal of the second rectifier are electrically connected to the first and second memory cells, respectively; and a first contact rectifier between the first memory cell and the first contact line.
A system for securing to a patient's spine a retractor system , comprising a retractor blade comprising an interior blade surface configured for facing towards a central bore functioning as a working channel of the retractor system , an exterior blade surface opposite of the interior blade surface and configured for facing towards tissue of the patient, and blade sides connecting the interior blade surface and the exterior blade surface ; the securing system further comprising a shim device comprising an interior shim surface configured for facing towards the central bore functioning as a working channel of the retractor system , an exterior shim surface opposite of the interior shim surface , and shim sides connecting the interior shim surface and the exterior shim surface , wherein the shim sides each extend outwardly and transversely from the exterior shim surface , the end of the sides being bent towards each other, the bent ends thus forming shim channels , wherein the bent ends are configured to wrap around the sides of the retractor blade from the interior blade surface to the exterior blade surface so as to hold the retractor blade in an engaged position, wherein the shim device is configured to releasably couple to the retractor blade with the exterior shim surface facing the interior blade surface such that a distal tip of the shim device , configured to be disposed in the patient, extends past a distal end of the retractor blade , configured to be disposed towards the patient opposite the proximal end of the retractor system , with the blade sides engaged in the shim channels formed by the shim sides , characterized in that the blade sides of the retractor blade each comprise a locking tab protruding from each respective blade side to engage the sides 258 of the shim device 200 and configured to lock the shim device onto the retractor blade .
Method for handling food, comprising the following steps: • providing a plurality of thermometers , each with an identifier specific to the thermometer , wherein the respective thermometer comprises at least one core temperature sensor and one outside temperature sensor , • providing at least one food in which one of the thermometers is inserted, hereinafter referred to as "inserted thermometer", wherein the core temperature sensor of the inserted thermometer is arranged further inside the food than the outside temperature sensor , • continuously measuring an outside temperature with the outside temperature sensor of the plurality of thermometers , • continuously wirelessly transmitting the outside temperature together with the identifier of the respective thermometer to a control unit , • transferring the food together with the inserted thermometer from a first receiving space with a first receiving space temperature into a second receiving space with a second receiving space temperature, wherein the two receiving space temperatures differ from one another, • allocating, by means of the control unit , which of the plurality of thermometers was transferred as "inserted thermometer" together with the food , based on the measured outside temperature of the plurality of thermometers . • providing a plurality of thermometers , each with an identifier specific to the thermometer , wherein the respective thermometer comprises at least one core temperature sensor and one outside temperature sensor , • providing at least one food in which one of the thermometers is inserted, hereinafter referred to as "inserted thermometer", wherein the core temperature sensor of the inserted thermometer is arranged further inside the food than the outside temperature sensor , • continuously measuring an outside temperature with the outside temperature sensor of the plurality of thermometers , • continuously wirelessly transmitting the outside temperature together with the identifier of the respective thermometer to a control unit , • transferring the food together with the inserted thermometer from a first receiving space with a first receiving space temperature into a second receiving space with a second receiving space temperature, wherein the two receiving space temperatures differ from one another, • allocating, by means of the control unit , which of the plurality of thermometers was transferred as "inserted thermometer" together with the food , based on the measured outside temperature of the plurality of thermometers .
A computer implemented method of calculating kinetic parameters of a reaction network from an observed signal or sequence of observed signals of said reaction network the method comprising the steps of: providing an intermediate objective function, wherein said intermediate objective function comprises a linearized intermediate discrepancy function which comprises intermediate parameters which have been determined by applying a reparameterization function to the parameters of a discrepancy function, wherein the intermediate discrepancy function is linear with respect to all of said intermediate parameters; determining values for each of the intermediate parameters in said linearized intermediate discrepancy function, which minimize the intermediate objective function, using a direct estimation method; determining values for the parameters of the discrepancy function by applying an inverse of the reparameterization function to said determined values of the intermediate parameters; determining values for the kinetic parameters from said determined values for said parameters of the discrepancy function. providing an intermediate objective function, wherein said intermediate objective function comprises a linearized intermediate discrepancy function which comprises intermediate parameters which have been determined by applying a reparameterization function to the parameters of a discrepancy function, wherein the intermediate discrepancy function is linear with respect to all of said intermediate parameters; determining values for each of the intermediate parameters in said linearized intermediate discrepancy function, which minimize the intermediate objective function, using a direct estimation method; determining values for the parameters of the discrepancy function by applying an inverse of the reparameterization function to said determined values of the intermediate parameters; determining values for the kinetic parameters from said determined values for said parameters of the discrepancy function.
Method for carrying out data transfer processes in industrial installations, characterized by an authorization file being generated based on installation-specific information concerning equipment vendors, operators and locations of respective installations, provided to accompany data to be transferred, whereby the authorization file being added to the data to be transferred.
A control loading system for motion simulation, comprising: a slotted motor having a motor shaft and an encoder configured to measure an angle of the motor shaft , the slotted motor exhibiting cogging; an output arm coupled to the motor shaft and including a force transducer configured to measure an applied force applied by an operator; and a control stage configured to: receive inputs for (i) the applied force , (ii) the angle of the motor shaft , and (iii) a modeled force generated by a flight-control model; produce a command reflecting a desired velocity of the output arm based on a difference between the model force and the applied force ; and generate , based on the inputs and on the command, a current command input coupled to the slotted motor for driving the slotted motor ; apply a motor pole map to generate a cogging-correction based at least in part on (i) the angle of the motor shaft and (ii) the command reflecting the desired velocity; and provide the cogging correction as a component of the current command input for driving the slotted motor , thereby compensating for cogging in the slotted motor. a slotted motor having a motor shaft and an encoder configured to measure an angle of the motor shaft , the slotted motor exhibiting cogging; an output arm coupled to the motor shaft and including a force transducer configured to measure an applied force applied by an operator; and a control stage configured to: receive inputs for (i) the applied force , (ii) the angle of the motor shaft , and (iii) a modeled force generated by a flight-control model; produce a command reflecting a desired velocity of the output arm based on a difference between the model force and the applied force ; and generate , based on the inputs and on the command, a current command input coupled to the slotted motor for driving the slotted motor ; apply a motor pole map to generate a cogging-correction based at least in part on (i) the angle of the motor shaft and (ii) the command reflecting the desired velocity; and provide the cogging correction as a component of the current command input for driving the slotted motor , thereby compensating for cogging in the slotted motor. receive inputs for (i) the applied force , (ii) the angle of the motor shaft , and (iii) a modeled force generated by a flight-control model; produce a command reflecting a desired velocity of the output arm based on a difference between the model force and the applied force ; and generate , based on the inputs and on the command, a current command input coupled to the slotted motor for driving the slotted motor ; apply a motor pole map to generate a cogging-correction based at least in part on (i) the angle of the motor shaft and (ii) the command reflecting the desired velocity; and provide the cogging correction as a component of the current command input for driving the slotted motor , thereby compensating for cogging in the slotted motor.
A method , performed in an accessory device , for assisting change of a base plate of an ostomy appliance , wherein the accessory device comprises an interface configured to communicate with one or more devices of an ostomy system , the interface comprising a display , wherein the ostomy system comprises a monitor device and an ostomy appliance configured to be placed on a skin surface of a user, wherein the ostomy appliance comprises a base plate , characterized in that the method comprises: - obtaining an operating state of the ostomy appliance , wherein the operating state is indicative of adhesive performance of the ostomy appliance ; - determining whether the operating state satisfies a change criterion; and - in accordance with the operating state satisfying the change criterion, displaying , on the display , a first user interface screen comprising a first user interface object representing the operating state indicative of a required change of the base plate . - obtaining an operating state of the ostomy appliance , wherein the operating state is indicative of adhesive performance of the ostomy appliance ; - determining whether the operating state satisfies a change criterion; and - in accordance with the operating state satisfying the change criterion, displaying , on the display , a first user interface screen comprising a first user interface object representing the operating state indicative of a required change of the base plate .
A coherent dynamically controllable narrow band light source , comprising - a first sub-light source , said first sub-light source being electrically controllable such as to generate controllable time-dependent intensity patterns of light having a first wavelength, - a second sub-light source capable of emitting light with a second wavelength, said second wavelength being longer than said first wavelength, and - a Raman active medium suitable to cause Raman scattering of light having said first wavelength, wherein said Raman active medium is formed by an optical fiber , wherein said light emitted by said first and second sub-light sources traverses a length of said optical fiber in a feed-forward configuration to facilitate a non-linear wavelength conversion step, wherein both of said first and second sub-light sources have a coherence length longer than 2 mm, wherein the length of said fiber is selected such as to allow for at least two consecutive Raman wavelength shifts, wherein the frequency shift associated with the at least two consecutive Raman wavelength shifts is a corresponding multiple of the difference between said second and first wavelengths, and wherein narrow bandwidth second or higher order Raman wavelength shifted light is generated by a combination of four-wave-mixing type processes and Raman processes without stimulated emission caused by a further Raman seed source of a corresponding wavelength. - a first sub-light source , said first sub-light source being electrically controllable such as to generate controllable time-dependent intensity patterns of light having a first wavelength, - a second sub-light source capable of emitting light with a second wavelength, said second wavelength being longer than said first wavelength, and - a Raman active medium suitable to cause Raman scattering of light having said first wavelength, wherein said Raman active medium is formed by an optical fiber , wherein said light emitted by said first and second sub-light sources traverses a length of said optical fiber in a feed-forward configuration to facilitate a non-linear wavelength conversion step,
An adhesive ostomy element comprising a backing layer , having at least a first section , and having at least a first adhesive on a proximal surface of said backing layer , a stoma-receiving through-going hole defining an inner boundary in said first section, said first section being adjacent to and extending radially from said through-going hole , characterized in that at least a part of a distal portion of the first section is being provided with a layer of swellable, absorbent foam adjacent to the hole , wherein the foam is configured to expand towards the stoma when wetted/swelling and wherein the foam expands at least 50% v/v when fully saturated with water.
A two-cycle engine, characterized by a structure where, through descending of a piston , a mixed gas guided into a crank case is guided into a combustion chamber formed on an upper side of the piston through a scavenging passage , wherein the crank case is disposed to a lower side of the piston performing a reciprocal up-down movement in a cylinder , wherein in the two-cycle engine, a notch part is formed locally from a lower end side on a sidewall part of the piston sliding along an inner surface of the cylinder , the notch part is connected to the scavenging passage when the piston is located at a bottom dead center, a crank case protruding part is disposed in the crank case , and the crank case protruding part is located on a lower side of the scavenging passage and penetrates through the notch part and protrudes toward a central axis side of the cylinder when the piston is located at the bottom dead center, a connection part of the crank case protruding part connecting a surface on a central side and an upper surface is formed to be a gentle curved surface, and the scavenging passage has a scavenging inlet (O) on the side of the crank case , the scavenging inlet (O) is a part where the notch part and the scavenging passage overlap.
Honing method for machining the internal face of a bore in a workpiece with the aid of at least one honing operation, in particular for honing cylinder running faces in the production of cylinder blocks or cylinder liners for reciprocating piston engines, wherein during a honing operation a flaring-capable honing tool that is coupled to a spindle is moved back and forth within the bore for generating a reciprocating movement in the axial direction of the bore, and is simultaneously rotated for generating a rotating movement superimposed to the reciprocating movement with a torque transmitted by way of the spindle , a bore shape having an axial contour profile, which is rotationally symmetrical in relation to a bore axis and deviates from the circular cylindrical shape, is generated, and for generating an axially variable material removal in at least one stroke modification phase (PH2) a stroke length and/or a stroke orientation of the reciprocating movement is modified, characterized by controlling the torque (DM) transmitted by way of the spindle to the honing tool in such a manner that the torque remains substantially constant during the stroke modification phase such that a deviation of the torque, averaged across a stroke, from a torque nominal value is less than 15%. during a honing operation a flaring-capable honing tool that is coupled to a spindle is moved back and forth within the bore for generating a reciprocating movement in the axial direction of the bore, and is simultaneously rotated for generating a rotating movement superimposed to the reciprocating movement with a torque transmitted by way of the spindle , a bore shape having an axial contour profile, which is rotationally symmetrical in relation to a bore axis and deviates from the circular cylindrical shape, is generated, and for generating an axially variable material removal in at least one stroke modification phase (PH2) a stroke length and/or a stroke orientation of the reciprocating movement is modified, characterized by controlling the torque (DM) transmitted by way of the spindle to the honing tool in such a manner that the torque remains substantially constant during the stroke modification phase such that a deviation of the torque, averaged across a stroke, from a torque nominal value is less than 15%.
A vehicle seat armrest assembly , comprising: an armrest having a top , a bottom , an inboard side , an outboard side , and spaced first and second guide tracks provided along the outboard side; first and second guides slidably engaged in the respective first and second guide tracks ; and an arm pad attached to the first and second guides , the arm pad having contiguous first and second sides , wherein the arm pad is repositionable relative to the armrest between a first position in which the first side is positioned on the top of the armrest and the second side is positioned alongside the outboard side of the armrest , and a second position in which the first side is positioned alongside the inboard side of the armrest and the second side is positioned on the top of the armrest . an armrest having a top , a bottom , an inboard side , an outboard side , and spaced first and second guide tracks provided along the outboard side; first and second guides slidably engaged in the respective first and second guide tracks ; and an arm pad attached to the first and second guides , the arm pad having contiguous first and second sides , wherein the arm pad is repositionable relative to the armrest between a first position in which the first side is positioned on the top of the armrest and the second side is positioned alongside the outboard side of the armrest , and a second position in which the first side is positioned alongside the inboard side of the armrest and the second side is positioned on the top of the armrest .