mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: in a chassis comprising a plurality of nodes , a network switch , and a programmable device configured to manage a shared resource of the chassis , establishing, using the network switch , a dedicated network among respective baseboard management controllers of nodes in the plurality of nodes ; and using the dedicated network , automatically selecting a given node from the plurality of nodes to function as a master node to program the programmable device on behalf of all nodes in the plurality of nodes to manage the shared resource of the chassis on behalf of all the nodes in the plurality of nodes ; and characterised by in the event that the given node receives a communication from a further node from the plurality of nodes indicating that the further node is also, simultaneously, functioning as a master node, selecting as the master node the node having a lower slot ID in the chassis ; wherein each of the respective baseboard management controllers of nodes is configured to periodically receive node data, via a broadcasted transmission, from each other node in the plurality of nodes via the dedicated network ; and wherein each of the respective baseboard management controllers of the nodes stores, in memory , node data from each other node in the plurality of nodes . in a chassis comprising a plurality of nodes , a network switch , and a programmable device configured to manage a shared resource of the chassis , establishing, using the network switch , a dedicated network among respective baseboard management controllers of nodes in the plurality of nodes ; and using the dedicated network , automatically selecting a given node from the plurality of nodes to function as a master node to program the programmable device on behalf of all nodes in the plurality of nodes to manage the shared resource of the chassis on behalf of all the nodes in the plurality of nodes ; and characterised by in the event that the given node receives a communication from a further node from the plurality of nodes indicating that the further node is also, simultaneously, functioning as a master node, selecting as the master node the node having a lower slot ID in the chassis ; wherein each of the respective baseboard management controllers of nodes is configured to periodically receive node data, via a broadcasted transmission, from each other node in the plurality of nodes via the dedicated network ; and wherein each of the respective baseboard management controllers of the nodes stores, in memory , node data from each other node in the plurality of nodes .
Heating device with a support and with at least one sheet-like electrical heating conductor arranged on said support, wherein the heating conductor runs between a first terminal and a second terminal , wherein the at least one heating conductor comprises carbon-based material as heating conductor material, characterized in that - the at least one heating conductor is formed in plan view as a portion of a circular ring, - the first terminal and the second terminal extend essentially in a circumferential direction, wherein one terminal extends on an inside and one terminal extends on an outside, - the heating conductor thickness varies along a current flow or current path between the two terminals . - the at least one heating conductor is formed in plan view as a portion of a circular ring, - the first terminal and the second terminal extend essentially in a circumferential direction, wherein one terminal extends on an inside and one terminal extends on an outside, - the heating conductor thickness varies along a current flow or current path between the two terminals .
A concrete composite element for a ceiling element which comprises a concrete slab element , a first beam element and a second beam element , wherein the concrete slab element rests on the first beam element and the second beam element , wherein the concrete slab element , the first beam element and the second beam element delimit an intermediate space , characterized in that the intermediate space contains an air circulation element , wherein an air flow can be generated by the air circulation element which is directed onto the surface of the concrete slab element facing the intermediate space .
An end-effector, comprising: a clamp arm ; and an ultrasonic blade configured to acoustically couple to an ultrasonic transducer and to electrically couple to a pole of an electrical generator; wherein the clamp arm is configured to cooperate with the ultrasonic blade to grasp tissue therebetween, and wherein the clamp arm comprises: a clamp jaw ; and characterized by : a cantilever electrode configured to electrically couple to an opposite pole of the electrical generator, wherein the cantilever electrode is only fixed to the clamp jaw at a proximal end and is free to deflect along substantially its whole length including at a distal end; and wherein the clamp arm comprises control features configured to adjust a tissue path relative to either the clamp arm or the ultrasonic blade to create a predefined location of contact, wherein the control features are configured to prevent tissue from accumulating between the clamp jaw and the cantilever electrode. a clamp arm ; and an ultrasonic blade configured to acoustically couple to an ultrasonic transducer and to electrically couple to a pole of an electrical generator; wherein the clamp arm is configured to cooperate with the ultrasonic blade to grasp tissue therebetween, and wherein the clamp arm comprises: a clamp jaw ; and characterized by : a cantilever electrode configured to electrically couple to an opposite pole of the electrical generator, wherein the cantilever electrode is only fixed to the clamp jaw at a proximal end and is free to deflect along substantially its whole length including at a distal end; and wherein the clamp arm comprises control features configured to adjust a tissue path relative to either the clamp arm or the ultrasonic blade to create a predefined location of contact, wherein the control features are configured to prevent tissue from accumulating between the clamp jaw and the cantilever electrode. a cantilever electrode configured to electrically couple to an opposite pole of the electrical generator, wherein the cantilever electrode is only fixed to the clamp jaw at a proximal end and is free to deflect along substantially its whole length including at a distal end; and wherein the clamp arm comprises control features configured to adjust a tissue path relative to either the clamp arm or the ultrasonic blade to create a predefined location of contact, wherein the control features are configured to prevent tissue from accumulating between the clamp jaw and the cantilever electrode.
A monoclonal antibody having a specific reactivity with amylospheroid which is higher than the antibody's reactivity with amyloid precursor protein, wherein said antibody is a hamster antibody produced from a hybridoma having an accession number of either FERM BP-10871 or FERM BP-10872 or a humanised antibody produced therefrom, and having a reactivity with amylospheroid at least 50 times higher than with monomeric amyloid β-protein Aβ1-40, in a system wherein a reactivity of an antibody with amylospheroid is compared with a reactivity of the antibody with monomeric amyloid β-proteins at the same antibody concentration, antibody amount, antigen protein concentration, and antigen protein amount.; and having any one or more of the following properties: (i) a reactivity with amylospheroid at least 3 times higher than with amyloid β fibrils, in a system wherein a reactivity of an antibody with amylospheroid is compared with a reactivity of the antibody with amyloid β fibrils at the same antibody concentration, antibody amount, antigen protein concentration, and antigen protein amount; and (ii) an activity of inhibiting the neuronal cell death induced by amylospheroid. (i) a reactivity with amylospheroid at least 3 times higher than with amyloid β fibrils, in a system wherein a reactivity of an antibody with amylospheroid is compared with a reactivity of the antibody with amyloid β fibrils at the same antibody concentration, antibody amount, antigen protein concentration, and antigen protein amount; and (ii) an activity of inhibiting the neuronal cell death induced by amylospheroid.
Method for determining position data, generating calibration data, and controlling a position of an irradiation pattern of an irradiation device of an apparatus for additively manufacturing three-dimensional objects by means of successive layerwise selective consolidation of layers (17 - 19, 21 - 23) of a build material arranged in a build plane essentially extending in x- and y-direction, which build material can be consolidated by means of an energy source, wherein the build material is carried by a carrying element of a carrying unit , wherein the carrying element is essentially movable in z-direction, wherein the z-direction is essentially perpendicular to the x- and y-direction, wherein position data relating to an x- and/or y-position of the carrying element are determined for at least one z-position via an optical and/or a mechanical determination in advance of and/or during an additive manufacturing process, wherein the optical and/or a mechanical determination of the x- and/or y-position of the carrying element is determined via a measurement structure arranged on the bottom of the carrying element , wherein calibration data are generated relating to a deviation of the carrying element from a nominal position in x- and/or y-direction for the at least one z-position, and wherein the position of the irradiation pattern of the irradiation device for a corresponding layer relative to the carrying element is controlled dependent on the calibration data and/or the position data.
Method for controlling a flow rate in a cooling circuit , wherein the cooling circuit is assigned to an electrically operated drive train of a motor vehicle and has at least a first pump for delivering a coolant and at least one component exposed to the coolant , wherein the method comprises at least the following steps: a) operating the first pump and delivering the coolant through the cooling circuit ; b) measuring a differential pressure of the coolant acting on the component ; c) ascertaining a flow rate , correlating with the measured differential pressure , on the basis of a characteristic map stored in a control device and d) controlling the first pump by the control device on the basis of the flow rate determined by way of the measured differential pressure . a) operating the first pump and delivering the coolant through the cooling circuit ; b) measuring a differential pressure of the coolant acting on the component ; c) ascertaining a flow rate , correlating with the measured differential pressure , on the basis of a characteristic map stored in a control device and d) controlling the first pump by the control device on the basis of the flow rate determined by way of the measured differential pressure .
An electric battery device comprising: - a battery fastening subplate , - at least one battery coupled to the battery fastening subplate, the battery having a main face applied against the subplate in at least one position for fastening on the subplate, and a handle for gripping the battery, rigidly secured to the battery, - members for fastening the battery on the fastening subplate, in the fastening position, - at least one lock , for locking the battery in the fastening position and - at least one member for releasing the lock, characterised in that : - the lock is separate from the battery and - the release member of the lock is formed on a portion of the battery provided with the gripping handle of the battery, for gripping the battery and concomitantly actuating the release member of the lock with one hand, - the gripping handle of the battery is offset in the direction of the main face of the battery, with respect to a centre of gravity of the battery. - a battery fastening subplate , - at least one battery coupled to the battery fastening subplate, the battery having a main face applied against the subplate in at least one position for fastening on the subplate, and a handle for gripping the battery, rigidly secured to the battery, - members for fastening the battery on the fastening subplate, in the fastening position, - at least one lock , for locking the battery in the fastening position and - at least one member for releasing the lock, - the lock is separate from the battery and - the release member of the lock is formed on a portion of the battery provided with the gripping handle of the battery, for gripping the battery and concomitantly actuating the release member of the lock with one hand, - the gripping handle of the battery is offset in the direction of the main face of the battery, with respect to a centre of gravity of the battery.
A construct comprising a GDF15 polypeptide and two Fc sequences, wherein the GDF15 polypeptide is a polypeptide of SEQ ID NO: 4, 8 or 12 or a biologically active mutant thereof with 85% identity to the polypeptide of SEQ ID NO: 4, 8 or 12 and wherein (A) the two Fc sequences are associated and wherein the GDF15 polypeptide and one Fc sequence form a contiguous sequence, wherein (a) one of the two Fc sequences is a negatively charged Fc sequence lacking the hinge region and comprising a charged pair mutation and the second of the two Fc sequences is a positively charged Fc sequence lacking the hinge region and comprising a charged pair mutation, or (b) one of the two Fc sequences is a negatively charged Fc sequence comprising a charged pair mutation and the second of the two Fc sequences is a positively charged Fc sequence comprising a charged pair mutation; or (B) the GDF15 polypeptide and the two Fc sequences form a contiguous sequence. (A) the two Fc sequences are associated and wherein the GDF15 polypeptide and one Fc sequence form a contiguous sequence, wherein (a) one of the two Fc sequences is a negatively charged Fc sequence lacking the hinge region and comprising a charged pair mutation and the second of the two Fc sequences is a positively charged Fc sequence lacking the hinge region and comprising a charged pair mutation, or (b) one of the two Fc sequences is a negatively charged Fc sequence comprising a charged pair mutation and the second of the two Fc sequences is a positively charged Fc sequence comprising a charged pair mutation; or (a) one of the two Fc sequences is a negatively charged Fc sequence lacking the hinge region and comprising a charged pair mutation and the second of the two Fc sequences is a positively charged Fc sequence lacking the hinge region and comprising a charged pair mutation, or (b) one of the two Fc sequences is a negatively charged Fc sequence comprising a charged pair mutation and the second of the two Fc sequences is a positively charged Fc sequence comprising a charged pair mutation; or (B) the GDF15 polypeptide and the two Fc sequences form a contiguous sequence.
A waste heat recovery system for a vehicle, comprising: at least one heat exchanger fluidically coupled to a vehicle waste heat source and configured for selectively recovering heat from the vehicle waste heat source to heat a working fluid ; at least one energy conversion device fluidically coupled to the at least one heat exchanger and configured to receive the working fluid and to generate an energy for performing work or transferring the energy to another device using heat recovered from the vehicle waste heat source ; a condenser fluidically coupled to the at least one energy conversion device and configured to receive the working fluid from the at least one energy conversion device and to condense the working fluid into a liquid phase; a recuperator fluidically coupled to the at least one energy conversion device and configured to receive the working fluid from the at least one energy conversion device and to communicate at least a portion of the working fluid to the at least one heat exchanger ; characterized in that the system further comprises an exhaust boiler fluidically coupled to the at least one heat exchanger and configured to receive the working fluid from the at least one heat exchanger and to evaporate the working fluid and communicate the evaporated working fluid to the at least one energy conversion device ; wherein the exhaust boiler includes a plurality of microtubes, and the condenser is fluidically coupled to a sub-cooler which is fluidically coupled to the recuperator . at least one heat exchanger fluidically coupled to a vehicle waste heat source and configured for selectively recovering heat from the vehicle waste heat source to heat a working fluid ; at least one energy conversion device fluidically coupled to the at least one heat exchanger and configured to receive the working fluid and to generate an energy for performing work or transferring the energy to another device using heat recovered from the vehicle waste heat source ; a condenser fluidically coupled to the at least one energy conversion device and configured to receive the working fluid from the at least one energy conversion device and to condense the working fluid into a liquid phase; a recuperator fluidically coupled to the at least one energy conversion device and configured to receive the working fluid from the at least one energy conversion device and to communicate at least a portion of the working fluid to the at least one heat exchanger ; characterized in that the system further comprises an exhaust boiler fluidically coupled to the at least one heat exchanger and configured to receive the working fluid from the at least one heat exchanger and to evaporate the working fluid and communicate the evaporated working fluid to the at least one energy conversion device ; wherein the exhaust boiler includes a plurality of microtubes, and the condenser is fluidically coupled to a sub-cooler which is fluidically coupled to the recuperator .
Adhesive tape for longitudinally sheathing elongate goods , comprising a first tape-like carrier and at least one adhesive layer which is applied on one side of the first carrier and which extends over the entire width (B2) of the first carrier , wherein a second carrier is laminated onto the adhesive layer , said second carrier having a smaller width (B4) than the width (B2) of the first carrier , as a result of which the first carrier protrudes along with the adhesive layer at least in relation to a side edge of the second carrier , wherein the second carrier is not provided with an adhesive layer and is intended to be the carrier next to the elongate goods in the sheathed state of the elongate goods , characterized in that the first carrier is composed of an aluminium composite material and the second carrier is composed of a PET woven fabric, wherein the aluminium composite material is composed of at least two layers, of which the first layer is an aluminium layer and the second layer, onto which the adhesive layer is applied, is composed of a temperature-resistant plastic film or of textile carrier material.
A memory device comprising: a memory cell array comprising a plurality of memory cells; a page buffer circuit connected to the memory cell array through a plurality of bit lines (BL), comprising a page buffer (PB) connected to each of the plurality of bit lines, and configured to perform a pre-charge operation on the plurality of bit lines during a pre-charge period for data reading; and a control logic configured to receive a detected temperature of the memory device and to differently control the pre-charge operation of the page buffer circuit according to the detected temperature, wherein the pre-charge period comprises a first period (tPRE_1) in which the plurality of bit lines are overdriven and a second period (t_PRE2) in which the plurality of bit lines are driven at a voltage lower than that of the first period, and the first period where the detected temperature is a first temperature is set to be shorter than the first period where the detected temperature is a second temperature higher than the first temperature. a memory cell array comprising a plurality of memory cells; a page buffer circuit connected to the memory cell array through a plurality of bit lines (BL), comprising a page buffer (PB) connected to each of the plurality of bit lines, and configured to perform a pre-charge operation on the plurality of bit lines during a pre-charge period for data reading; and a control logic configured to receive a detected temperature of the memory device and to differently control the pre-charge operation of the page buffer circuit according to the detected temperature, wherein the pre-charge period comprises a first period (tPRE_1) in which the plurality of bit lines are overdriven and a second period (t_PRE2) in which the plurality of bit lines are driven at a voltage lower than that of the first period, and the first period where the detected temperature is a first temperature is set to be shorter than the first period where the detected temperature is a second temperature higher than the first temperature.
A portable control device comprising: a storage unit configured to store control data comprising a program, which controls a system located in a first area, and data used for executing the program; a position control unit configured to acquire a position of the device itself; and a communication unit configured to receive the control data, wherein the portable control device is characterized by further comprising: a main control unit configured to delete the control data from the storage unit when the position acquired by the position control unit is outside the first area, wherein the main control unit causes the communication unit to receive the control data and store the received control data in the storage unit when the position acquired by the position control unit is within the first area, and the main control unit is configured to delete the received control data stored in the storage unit when the position acquired by the position control unit is outside the first area, wherein the first area is an area where control of the system in which the control data assigned to the first area is used is permitted. a storage unit configured to store control data comprising a program, which controls a system located in a first area, and data used for executing the program; a position control unit configured to acquire a position of the device itself; and a communication unit configured to receive the control data, wherein the portable control device is characterized by further comprising: a main control unit configured to delete the control data from the storage unit when the position acquired by the position control unit is outside the first area, wherein the main control unit causes the communication unit to receive the control data and store the received control data in the storage unit when the position acquired by the position control unit is within the first area, and the main control unit is configured to delete the received control data stored in the storage unit when the position acquired by the position control unit is outside the first area, wherein the first area is an area where control of the system in which the control data assigned to the first area is used is permitted. a main control unit configured to delete the control data from the storage unit when the position acquired by the position control unit is outside the first area, wherein the main control unit causes the communication unit to receive the control data and store the received control data in the storage unit when the position acquired by the position control unit is within the first area, and the main control unit is configured to delete the received control data stored in the storage unit when the position acquired by the position control unit is outside the first area, wherein the first area is an area where control of the system in which the control data assigned to the first area is used is permitted.