mhurhangee/patent-ind-claim-en huggingface dataset:
A three-transmitter system for transmitting successive multi-phase symbols, comprising: an encoder configured to encode data to provide commands corresponding to the successive multi-phase symbols; a plurality of three transmitters each configured to drive its output signal responsive to a current one of the commands to one of a plurality of signal levels for a current one of the successive multi-phase symbols; and a logic circuit configured to detect when a mid-level one of the three transmitters is commanded by the encoder to transition its output signal from a high-level to a mid-level for the current multi-phase symbol while a low-level one of the three transmitters is commanded by the encoder to transition its output signal from the mid-level to a low-level and to force the mid-level transmitter to instead transition its output signal to a reduced mid-level during an initial portion of the current multi-phase symbol and to then transition its output signal to the mid-level for a remaining portion of the current multi-phase symbol and to force the low-level transmitter to instead transition its output signal to an increased low-level during the initial portion and to then transition its output signal to the low-level during the remaining portion, wherein the high-level is greater than the mid-level, the mid-level is greater than the reduced mid-level, the reduced mid-level is greater than increased low-level, and the increased low-level is greater than the low-level. an encoder configured to encode data to provide commands corresponding to the successive multi-phase symbols; a plurality of three transmitters each configured to drive its output signal responsive to a current one of the commands to one of a plurality of signal levels for a current one of the successive multi-phase symbols; and a logic circuit configured to detect when a mid-level one of the three transmitters is commanded by the encoder to transition its output signal from a high-level to a mid-level for the current multi-phase symbol while a low-level one of the three transmitters is commanded by the encoder to transition its output signal from the mid-level to a low-level and to force the mid-level transmitter to instead transition its output signal to a reduced mid-level during an initial portion of the current multi-phase symbol and to then transition its output signal to the mid-level for a remaining portion of the current multi-phase symbol and to force the low-level transmitter to instead transition its output signal to an increased low-level during the initial portion and to then transition its output signal to the low-level during the remaining portion, wherein the high-level is greater than the mid-level, the mid-level is greater than the reduced mid-level, the reduced mid-level is greater than increased low-level, and the increased low-level is greater than the low-level.
An electromagnetically actuatable proportional valve , in particular differential pressure valve for use in CO 2 air conditioning compressor arrangements, comprising an electromagnetic actuator for adjusting a valve body relative to a valve seat , the valve seat being assigned a first pressure connection via which a fluid can flow bypassing the valve body to a second pressure connection , the valve body delimiting a diffusor chamber which, with the valve body lying against the valve seat is connected in a fluid-conducting manner with the first pressure connection via a fluid connection delimited by the valve body , characterized in that the valve body has a conical lateral surface in a section delimiting the diffusor chamber , and that the valve body is assigned an internal cone surface which in sections encloses the valve body radially on the outside and which delimits the diffusor chamber an that a cone angle of the conical lateral surface is smaller than the cone angle of the internal cone surface .
A chemical amplification resist composition, which is a negative chemical amplification resist composition, comprising: (A) a polymer compound having a structure where a hydrogen atom of a phenolic hydroxyl group is replaced by a group having a non-acid-decomposable polycyclic alicyclic hydrocarbon structure; (B) a compound capable of generating an acid upon irradiation with an actinic ray or radiation, and (C) a compound having two or more hydroxymethyl groups or alkoxymethyl groups per molecule, wherein the phenolic hydroxyl group is a group formed by replacing a hydrogen atom of a monocyclic or polycyclic aromatic ring group by a hydroxyl group. (A) a polymer compound having a structure where a hydrogen atom of a phenolic hydroxyl group is replaced by a group having a non-acid-decomposable polycyclic alicyclic hydrocarbon structure; (B) a compound capable of generating an acid upon irradiation with an actinic ray or radiation, and (C) a compound having two or more hydroxymethyl groups or alkoxymethyl groups per molecule,
A method for deployment of components of a distributed application on destination runtime environments , the method being performed by a source runtime environment , the method comprising: providing (S102), with the components residing on the source runtime environment , public key fingerprints between the components , such that each component has its own public key and its own private key and is provided with a public key fingerprint of at least one other of the components ; and migrating (S104) each of the components from the source runtime environment to its destination runtime environment for deployment of each component on its destination runtime environment . providing (S102), with the components residing on the source runtime environment , public key fingerprints between the components , such that each component has its own public key and its own private key and is provided with a public key fingerprint of at least one other of the components ; and migrating (S104) each of the components from the source runtime environment to its destination runtime environment for deployment of each component on its destination runtime environment .
A base station apparatus configured to communicate with a terminal apparatus , the base station apparatus comprising: a frame configuration unit configured to allocate downlink data on a first radio frame structure with first subcarriers, spacing between the first subcarriers being one of a first plurality of values or on a second radio frame structure with second subcarriers, spacing between the second subcarriers being one of a second plurality of values, and allocate a synchronization signal on the first radio frame structure and the second radio frame structure, and a radio transmission unit configured to transmit the downlink data and the synchronization signal, wherein the first plurality of values include a value that is different from each of the second plurality of values, subcarrier spacing for the synchronization signal is different from subcarrier spacing for the downlink data in the first radio frame structure, and the subcarrier spacing for the synchronization signal is same as the subcarrier spacing for the downlink data in the second radio frame structure. a frame configuration unit configured to allocate downlink data on a first radio frame structure with first subcarriers, spacing between the first subcarriers being one of a first plurality of values or on a second radio frame structure with second subcarriers, spacing between the second subcarriers being one of a second plurality of values, and allocate a synchronization signal on the first radio frame structure and the second radio frame structure, and allocate downlink data on a first radio frame structure with first subcarriers, spacing between the first subcarriers being one of a first plurality of values or on a second radio frame structure with second subcarriers, spacing between the second subcarriers being one of a second plurality of values, and allocate a synchronization signal on the first radio frame structure and the second radio frame structure, and a radio transmission unit configured to transmit the downlink data and the synchronization signal, wherein the first plurality of values include a value that is different from each of the second plurality of values, subcarrier spacing for the synchronization signal is different from subcarrier spacing for the downlink data in the first radio frame structure, and the subcarrier spacing for the synchronization signal is same as the subcarrier spacing for the downlink data in the second radio frame structure.
Method for providing steam in a steam boiler for an ironing device , the method comprising the steps of: providing a regulating signal to an interface to a regulating device of the steam boiler in order to effect a predetermined minimum filling level of a liquid to be evaporated in the steam boiler ; providing a heating signal to an interface to a heating device of the steam boiler in order to effect heating of the liquid ; reading a temperature signal via an interface to a temperature sensor , the temperature signal representing a temperature of the liquid in the steam boiler ; providing an inlet signal to an interface to the regulating device in order to let in a quantity of liquid into the steam boiler when the temperature signal indicates a target temperature; and repeating the steps of reading the temperature signal and providing the inlet signal until the liquid in the steam boiler is at a predetermined maximum filling level and the temperature signal indicates the target temperature characterised in that the quantity of liquid is a predetermined quantity of liquid, and comprising a step of stopping providing the heating signal when the liquid in the steam boiler is at the predetermined maximum filling level and the temperature signal indicates the target temperature. providing a regulating signal to an interface to a regulating device of the steam boiler in order to effect a predetermined minimum filling level of a liquid to be evaporated in the steam boiler ; providing a heating signal to an interface to a heating device of the steam boiler in order to effect heating of the liquid ; reading a temperature signal via an interface to a temperature sensor , the temperature signal representing a temperature of the liquid in the steam boiler ; providing an inlet signal to an interface to the regulating device in order to let in a quantity of liquid into the steam boiler when the temperature signal indicates a target temperature; and repeating the steps of reading the temperature signal and providing the inlet signal until the liquid in the steam boiler is at a predetermined maximum filling level and the temperature signal indicates the target temperature characterised in that the quantity of liquid is a predetermined quantity of liquid, and comprising a step of stopping providing the heating signal when the liquid in the steam boiler is at the predetermined maximum filling level and the temperature signal indicates the target temperature.
A method for transferring a workpiece carrier in a production plant from a first conveying section to a second conveying section , wherein the workpiece carrier is guided in a guide arrangement of the production plant and wherein the conveying sections each comprise a toothed belt , said toothed belts each being driven by means of a pinion arranged on a shaft of a drive unit and said toothed belts engaging in a corresponding toothing of the workpiece carrier , wherein the workpiece carrier is displaced along the guide arrangement by means of the toothed belts and both the first toothed belt and the second toothed belt are in operative connection with the toothing of the workpiece carrier in a transfer region , characterized in that the first conveying section is controlled by a first controller and that the second conveying section is controlled by a second controller , wherein a virtual toothed belt is calculated by both the first controller and the second controller , which virtual toothed belt is at a certain position at a certain time, wherein the virtual toothed belt has multiple virtual tooth spaces corresponding to the tooth pitch of the toothed belts , wherein, on the basis of an internal timer in both controllers , a desired position of the virtual tooth space in the transfer region of the conveying sections is calculated, taking the predefined movement speed of the workpiece carrier into consideration and taking the tooth pitch of the toothed belts into consideration, wherein the virtual tooth space starts moving from a reference position at a reference time and moves at the predefined movement speed in a direction of displacement , wherein the toothed belts are controlled and synchronized by the respective controller via the drive units such that both a first tooth space of the first toothed belt and a second tooth space of the second toothed belt is synchronized with the desired position of the virtual tooth space , so that the workpiece carrier is moved into the transfer region without problems, wherein both the first toothed belt and the second toothed belt are engaged with the workpiece carrier in the transfer region , wherein the desired position of the virtual tooth space is calculated on the basis of the time units that have elapsed since the reference time.
A leader movable body (Vp) comprising: a degree of freedom setting unit configured to set a degree of freedom relevant to movement of a follower movable body (Vw); and a transmitter configured to transmit the degree of freedom to the follower movable body (Vw), wherein the follower movable body (Vw) is configured to perform group travel with respect to the leader movable body (Vp); and the degree of freedom includes an allowable value of a movement range of the follower movable body (Vw); characterised in that the movement range of the follower movable body (Vw) is set in one of a substantially circular shape, a substantially fan shape, and a substantially windmill shape. a degree of freedom setting unit configured to set a degree of freedom relevant to movement of a follower movable body (Vw); and a transmitter configured to transmit the degree of freedom to the follower movable body (Vw), wherein the follower movable body (Vw) is configured to perform group travel with respect to the leader movable body (Vp); and the degree of freedom includes an allowable value of a movement range of the follower movable body (Vw); characterised in that the movement range of the follower movable body (Vw) is set in one of a substantially circular shape, a substantially fan shape, and a substantially windmill shape.
A method of transferring cremation ashes into a long term ashes storage container, comprising:- a. providing ashes from a cremation, b. providing a long term ashes storage container having an inlet and providing a crematorium ashes transfer container that is made of paper and/or cardboard and comprises a nozzle capable of sealing engagement with the inlet on the long term storage container , c. transferring the ashes into the crematorium ashes transfer container via the nozzle , d. sealing the crematorium ashes transfer container with the ashes inside, e. opening the nozzle , f. connecting the nozzle with the inlet of the long term storage container so as to be in sealing engagement therewith, and g. transferring the ashes into the long term storage container . a. providing ashes from a cremation, b. providing a long term ashes storage container having an inlet and providing a crematorium ashes transfer container that is made of paper and/or cardboard and comprises a nozzle capable of sealing engagement with the inlet on the long term storage container , c. transferring the ashes into the crematorium ashes transfer container via the nozzle , d. sealing the crematorium ashes transfer container with the ashes inside, e. opening the nozzle , f. connecting the nozzle with the inlet of the long term storage container so as to be in sealing engagement therewith, and g. transferring the ashes into the long term storage container .
A device comprising: a III-nitride light emitting layer disposed between an n-type region and a p-type region ; a nanopipe terminating layer , wherein the n-type region is disposed between the nanopipe terminating layer and the light emitting layer ; and a layer comprising a nanopipe defect ; wherein the nanopipe terminating layer is disposed between the layer comprising a nanopipe defect and the light emitting layer , and wherein the nanopipe defect terminates in the nanopipe terminating layer , characterized in that , the nanopipe terminating layer is a III-nitride layer doped with an acceptor, and the dopant concentration in the III-nitride layer is graded. a III-nitride light emitting layer disposed between an n-type region and a p-type region ; a nanopipe terminating layer , wherein the n-type region is disposed between the nanopipe terminating layer and the light emitting layer ; and a layer comprising a nanopipe defect ; wherein the nanopipe terminating layer is disposed between the layer comprising a nanopipe defect and the light emitting layer , and wherein the nanopipe defect terminates in the nanopipe terminating layer , characterized in that , the nanopipe terminating layer is a III-nitride layer doped with an acceptor, and the dopant concentration in the III-nitride layer is graded.
Barrier device for providing clearance to a free inner space, comprising an at least partially hollow edge body which extends in a height direction and which is intended and configured to be received on a surface while bounding said inner space , wherein said edge body comprises an at least partially hollow chamber that is bounded laterally by side walls and on an upper side by a roof, wherein said side walls narrow in said height direction such that, in a first orientation, the edge body is nestable in said at least partially hollow chamber of a corresponding further barrier device up to a first combined height, characterized in that in a second orientation the edge body is stackable with the edge body of said corresponding further barrier device to form a stable stack with a second combined height which is greater than the first combined height, in that the edge body comprises at a base at least one bridge which maintains, when received on said surface, a distance to the surface, in that said at least partially hollow chamber comprises locally, in particular adjacently of a bridge, a lateral widened portion which is bounded by said side walls (41; 42) and said roof , and in that , in the second, stacked orientation, said bridge can drop along at least a part of said distance over the roof of the widened portion of the hollow chamber of said corresponding further barrier device, such that in said second, stacked orientation said bridge is installed on top of a part of said roof.
A method for treating organic wastewater, comprising a raw sludge removal step for removing raw sludge from organic wastewater, a raw sludge concentration step for concentrating the raw sludge removed from the organic wastewater to a prescribed concentration to obtain concentrated raw sludge, a biological treatment step for biologically treating the organic wastewater from which the raw sludge was removed, an excess sludge separation step for separating excess sludge from the biologically treated organic wastewater, an excess sludge concentration step for concentrating the separated excess sludge to a prescribed concentration to obtain concentrated excess sludge, a sludge mixing step for mixing the concentrated raw sludge and the concentrated excess sludge to obtain mixed sludge, and a methane fermentation treatment step for supplying the mixed sludge to a methane fermentation tank and performing a methane fermentation treatment, wherein the method for treating organic wastewater is characterized by further comprising a sterilization step for heating and sterilizing the concentrated excess sludge incorporated upstream of the sludge mixing step; and a control step for controlling the mixed sludge at a temperature adaptable to methane fermentation by adjusting the temperature to which the concentrated excess sludge is heated in the sterilization step, and the concentration of the concentrated raw sludge in the raw sludge concentration step and the concentration of the concentrated excess sludge in the excess sludge concentration step, and also adjusting the mixture ratio between the concentrated raw sludge and the concentrated excess sludge in the sludge mixing step according to the fluctuations in the amount of raw sludge generated and the amount of the excess sludge generated.
A furniture pad configured to lie between a furniture leg and a floor to prevent scratching of the floor as the furniture leg is moved along the floor surface, the pad comprising: a body including a protective material, a top surface defining a plane_and an attachment surface having an attachment mechanism to attach the furniture pad to the furniture leg, and a bottom surface opposing the top surface and defining a protective surface , wherein the body includes an inner segment and a first outer segment , wherein the inner segment has at least one smaller cross-sectional dimension than the outer segment, wherein the inner segment is detachable from the outer segment along a first separation path without cutting tools, and wherein the first separation path extends through at least a portion of a thickness (T) of the body in a direction generally orthogonal to the plane.
A parking assistance method of a parking assistance device for generating a peripheral image indicating a periphery of a moving object (V1) as viewed from above, detecting an unoccupied parking space (Q1 to Q4, Q21 to Q24) around the moving object (V1), and displaying, on the peripheral image, an assistance image indicating that the detected unoccupied parking space (Q1 to Q4, Q21 to Q24) is an available parking space, characterized by : determining whether the moving object (V1) intrudes on the unoccupied parking space (Q1 to Q4, Q21 to Q24); and inhibiting the assistance image from being displayed on the unoccupied parking space (Q1 to Q4, Q21 to Q24) on which the moving object (V1) is determined to intrude in the peripheral image. determining whether the moving object (V1) intrudes on the unoccupied parking space (Q1 to Q4, Q21 to Q24); and inhibiting the assistance image from being displayed on the unoccupied parking space (Q1 to Q4, Q21 to Q24) on which the moving object (V1) is determined to intrude in the peripheral image.