mhurhangee/patent-ind-claim-en huggingface dataset:
Cooling station comprising a liquid cooler which has a first distribution box consisting of a hollow extruded profile made of aluminium that has outwardly open guide grooves, and comprising a platform which can be pushed onto the liquid cooler and fixedly connected thereto by means of mechanical connecting elements which can be inserted into the guide grooves of the first distribution box, the cooling station comprising a set of platforms , each platform being connectable to the liquid cooler , and the set comprising platforms which have various hydraulic and/or electrical connections, each platform of the set having the same mechanical connecting elements for connecting to the liquid cooler , characterised in that each platform of the set has separate connections for at least the liquid feed line and the liquid discharge line .
A window apparatus for obtaining an in vivo microscopic image of a breast tissue, the window apparatus comprising: a first chamber configured to have a ring-shaped structure with an open window at the center of the first chamber for observing the breast tissue, wherein a cover glass is placed on a cover glass seat configured on the upper surface of the first chamber and the lower part of the first chamber is configured to hold a breast tissue for obtaining its in vivo microscopic image; a second chamber configured to have an open window at the center of the second chamber for observing the breast tissue, wherein the first chamber and the second chamber are configured to combine with each other, thereby holding the breast tissue therebetween for obtaining the in vivo microscopic image of the breast tissue; and a chamber holder configured to fix the first chamber and the second chamber and have a tilting mount seat where a tilting mount is placed to maintain the cover glass and an objective lens of a confocal microscope system in parallel with each other, and wherein the chamber holder is configured to have, a first protrusion (154-1) and a second protrusion (154-2) extending from a side of the tilting mount seat , and wherein the sides of said two protrusions (154-1, 154-2) facing each other are stepped, and the first chamber and the second chamber are fixed between the first protrusion (154-1) and the second protrusion (154-2). a first chamber configured to have a ring-shaped structure with an open window at the center of the first chamber for observing the breast tissue, wherein a cover glass is placed on a cover glass seat configured on the upper surface of the first chamber and the lower part of the first chamber is configured to hold a breast tissue for obtaining its in vivo microscopic image; a second chamber configured to have an open window at the center of the second chamber for observing the breast tissue, wherein the first chamber and the second chamber are configured to combine with each other, thereby holding the breast tissue therebetween for obtaining the in vivo microscopic image of the breast tissue; and a chamber holder configured to fix the first chamber and the second chamber and have a tilting mount seat where a tilting mount is placed to maintain the cover glass and an objective lens of a confocal microscope system in parallel with each other, and wherein the chamber holder is configured to have, a first protrusion (154-1) and a second protrusion (154-2) extending from a side of the tilting mount seat , and wherein the sides of said two protrusions (154-1, 154-2) facing each other are stepped, and the first chamber and the second chamber are fixed between the first protrusion (154-1) and the second protrusion (154-2).
A method of estimating the stimulation artifact signal on a selected recording electrode at a selected timepoint, wherein the selected recording electrode is one of an array , the array comprising a plurality of recording electrodes which are implantable in a neural structure , the method comprising the steps of: recording a signal on each recording electrode of the array at the selected timepoint; inputting the recorded signals into a mathematical function, wherein the function outputs an estimated value for the stimulation artifact signal on the selected electrode; wherein the function utilizes the recorded signals measured for the electrodes of the array other than the selected electrode and a previously-established mathematical relationship between signal measured on the selected electrode and the signal measured on the other recording electrodes of the array ; wherein the stimulation artifact of the selected electrode is calculated as X ^ i t = ∑ i ≠ j W ij X j t where X i(t) is the estimate of the stimulation artifact measured on electrode i at time t, Wij describes the contribution of the signal, Xj(t), measured on each electrode j to that measured on electrode i; wherein a matrix is generated and applied for the simultaneous calculation of stimulation artifact across the signal data measured by each electrode of the array ; and wherein the matrix, W, is generated as W = -ΛY , wherein, Y ≡ XX ⊤ − 1 , and Λ i , j = δ i , j Y i , j , and δ i , j = { 0 if i ≠ j 1 if i = j . , wherein δ i,j is the Kronecker delta function. recording a signal on each recording electrode of the array at the selected timepoint; inputting the recorded signals into a mathematical function, wherein the function outputs an estimated value for the stimulation artifact signal on the selected electrode; wherein the function utilizes the recorded signals measured for the electrodes of the array other than the selected electrode and a previously-established mathematical relationship between signal measured on the selected electrode and the signal measured on the other recording electrodes of the array ; wherein the stimulation artifact of the selected electrode is calculated as X ^ i t = ∑ i ≠ j W ij X j t where X i(t) is the estimate of the stimulation artifact measured on electrode i at time t, Wij describes the contribution of the signal, Xj(t), measured on each electrode j to that measured on electrode i; wherein a matrix is generated and applied for the simultaneous calculation of stimulation artifact across the signal data measured by each electrode of the array ; and wherein the matrix, W, is generated as W = -ΛY , wherein, Y ≡ XX ⊤ − 1 , and Λ i , j = δ i , j Y i , j , and δ i , j = { 0 if i ≠ j 1 if i = j . , wherein δ i,j is the Kronecker delta function.
A method for determining the density of insulation in a wall cavity , the method comprising: placing a probe into contact with the insulation such that at least an end of the probe is surrounded by the insulation ; causing, via a first actuator , the probe to oscillate within a first plane while in contact with the insulation ; sensing via a first sensor , oscillation of the probe within the first plane; causing via a second actuator, the probe to oscillate within a second plane that is perpendicular to the first plane; sensing via a second sensor, oscillation of the probe within the second plane; generating, via the first sensor , a signal that represents the displacement and/or velocity of the probe within the second plane with respect to time; and using the generated signal to determine the density of insulation . placing a probe into contact with the insulation such that at least an end of the probe is surrounded by the insulation ; causing, via a first actuator , the probe to oscillate within a first plane while in contact with the insulation ; sensing via a first sensor , oscillation of the probe within the first plane; causing via a second actuator, the probe to oscillate within a second plane that is perpendicular to the first plane; sensing via a second sensor, oscillation of the probe within the second plane; generating, via the first sensor , a signal that represents the displacement and/or velocity of the probe within the second plane with respect to time; and using the generated signal to determine the density of insulation .
Eccentric transmission with a first transmission element comprising a first axis as well as an outer contour with at least one cam protruding radially with respect to the first axis , and with a second transmission element comprising a second axis that is always held eccentric with respect to the first axis , wherein the first transmission element is mounted rotatably relative to the second transmission element about the first axis , and wherein the second transmission element is supported on the outer contour of the first transmission element in such a way that a rotation of the first transmission element about the first axis produces a rotation of the second axis of the second transmission element about the first axis , characterised in that the outer contour of the first transmission element comprises a number N of cams protruding radially with respect to the first axis , which are uniformly distributed in peripheral direction with respect to the first axis , wherein the second transmission element is supported in N+1 bearing points on the outer contour of the first transmission element , and wherein number N is at least two.
Turbidity sensor for a washing machine, in particular for household use, said sensor comprising: - an enclosure adapted to be positioned in the washing machine in such a way that it is at least partially surrounded by a washing liquid, said enclosure being provided with a first housing and a second housing ; - a first element emitting/receiving an electromagnetic radiation, housed in the first housing of the enclosure ; - a second element receiving/emitting an electromagnetic radiation, housed in the second housing of the enclosure , wherein the first housing and the second housing are at least partially made of transparent material to allow said electromagnetic radiation to be transmitted/received by the first element , propagate between the first housing and the second housing externally to said enclosure , and be received/transmitted by the second element for the purpose of detecting the degree of turbidity of the washing liquid that surrounds at least partially said enclosure and that is located between the first housing and the second housing , characterized in that the first housing and the second housing develop substantially perpendicular to a longitudinal axis (X-X) of the enclosure and in such a way as to face towards each other, wherein the enclosure is so realized as to comprise a recess between said first housing and second housing . - an enclosure adapted to be positioned in the washing machine in such a way that it is at least partially surrounded by a washing liquid, said enclosure being provided with a first housing and a second housing ; - a first element emitting/receiving an electromagnetic radiation, housed in the first housing of the enclosure ; - a second element receiving/emitting an electromagnetic radiation, housed in the second housing of the enclosure ,
A method for a database system synchronizing current state of the database system among a plurality of database nodes configured to handle requests for data of the database system stored in a distributed storage with one of the plurality of database nodes being currently active and the other database nodes of the plurality of database nodes being currently standby database nodes, the method comprising: receiving, at the active database node, a request to perform a first transaction that includes committing data to the distributed storage; and in response to receiving the request: committing, by the active database node, the data to the distributed storage to update the current state of the database system; and modifying a transaction log stored in the distributed storage by causing storing, by the active database node, of first metadata providing an indication of the commitment in the transaction log, wherein the transaction log identifies, to the standby database nodes, information for the standby database nodes to know the current state of the database system, in response to causing the storing of the first metadata, updating, by the active database node, a catalog maintained by a metadata server of the database system to identify the first metadata, said catalog being usable by a standby database node to locate the first metadata, wherein the metadata server notifies the standby nodes that the catalog has been updated. receiving, at the active database node, a request to perform a first transaction that includes committing data to the distributed storage; and in response to receiving the request: committing, by the active database node, the data to the distributed storage to update the current state of the database system; and modifying a transaction log stored in the distributed storage by causing storing, by the active database node, of first metadata providing an indication of the commitment in the transaction log, wherein the transaction log identifies, to the standby database nodes, information for the standby database nodes to know the current state of the database system, committing, by the active database node, the data to the distributed storage to update the current state of the database system; and modifying a transaction log stored in the distributed storage by causing storing, by the active database node, of first metadata providing an indication of the commitment in the transaction log, wherein the transaction log identifies, to the standby database nodes, information for the standby database nodes to know the current state of the database system,
A production method of a ski-boot comprising a substantially shoe-shaped rigid shell adapted to accommodate the foot of the user and which comprises: a rigid casing shaped so as to accommodate and enclose the foot of the user, and a sole which is arranged to cover the bottom wall of the rigid casing and comprises at least one front plate-like portion and a rear plate-like portion ; the production method of the ski-boot being characterized by comprising the steps of: - realizing at least the front plate-like portion of the sole of the rigid shell in a first thermoplastic material; - inserting the front plate-like portion of the sole inside a first mold for the injection molding of plastic material, which is internally provided with a closed cavity that substantially copies in negative the shape of the rigid shell to be realized; - injecting a second thermoplastic material inside the closed cavity that already accommodates the front plate-like portion of the sole , so that the second thermoplastic material can overlap the front plate-like portion and fill the remaining empty space, so as to form the rigid casing of the rigid shell ; and finally - extracting the resulting piece from the mold . - realizing at least the front plate-like portion of the sole of the rigid shell in a first thermoplastic material; - inserting the front plate-like portion of the sole inside a first mold for the injection molding of plastic material, which is internally provided with a closed cavity that substantially copies in negative the shape of the rigid shell to be realized; - injecting a second thermoplastic material inside the closed cavity that already accommodates the front plate-like portion of the sole , so that the second thermoplastic material can overlap the front plate-like portion and fill the remaining empty space, so as to form the rigid casing of the rigid shell ; and finally - extracting the resulting piece from the mold .
A method for a communication apparatus controlling a transmission power in a wireless communication system supporting a plurality of component carriers, the method comprising: when a physical uplink control channel, PUCCH, transmission including ACK/NACK, on a first component carrier and a PUCCH transmission including channel quality information, CQI, on a second component carrier are configured in a time interval, checking (S830) whether a total transmission power of the PUCCH transmission including ACK/NACK and the PUCCH transmission including CQI exceeds a maximum transmission power configured for the communication apparatus ; if the total transmission power of the PUCCH transmission including ACK/NACK and the PUCCH transmission including CQI exceeds the maximum transmission power configured for the communication apparatus , prioritizing (S840) transmission power allocation for the PUCCH transmission including ACK/NACK than transmission power allocation for the PUCCH transmission including CQI, wherein the prioritizing (S840) comprises allocating a transmission power to the PUCCH transmission including ACK/NACK, and allocating a remaining transmission power to the PUCCH transmission including CQI; and performing (S860) the PUCCH transmission including ACK/NACK on the first component carrier based on the allocated transmission power. when a physical uplink control channel, PUCCH, transmission including ACK/NACK, on a first component carrier and a PUCCH transmission including channel quality information, CQI, on a second component carrier are configured in a time interval, checking (S830) whether a total transmission power of the PUCCH transmission including ACK/NACK and the PUCCH transmission including CQI exceeds a maximum transmission power configured for the communication apparatus ; if the total transmission power of the PUCCH transmission including ACK/NACK and the PUCCH transmission including CQI exceeds the maximum transmission power configured for the communication apparatus , prioritizing (S840) transmission power allocation for the PUCCH transmission including ACK/NACK than transmission power allocation for the PUCCH transmission including CQI, wherein the prioritizing (S840) comprises allocating a transmission power to the PUCCH transmission including ACK/NACK, and allocating a remaining transmission power to the PUCCH transmission including CQI; and performing (S860) the PUCCH transmission including ACK/NACK on the first component carrier based on the allocated transmission power.
A method for computing, comprising: instantiating, by an operating system, OS,-absent firmware environment of a computing device, a sensor layer arranged with an interface that provides an abstraction of a plurality of sensor devices ; receiving, by the sensor layer in the OS-absent firmware environment, sensor data produced by the plurality of sensor devices; aggregating, by the sensor layer in the OS-absent firmware environment, the sensor data; selectively providing, by the sensor layer, the sensor data or aggregated sensor data to one or more firmware modules via the interface of the sensor layer; characterized in that the method further comprises selectively instantiating, by an environmental factor boot module in the OS-absent firmware environment, one or more drivers, based at least on one or more environmental factors associated with the sensor data or the aggregated sensor data. instantiating, by an operating system, OS,-absent firmware environment of a computing device, a sensor layer arranged with an interface that provides an abstraction of a plurality of sensor devices ; receiving, by the sensor layer in the OS-absent firmware environment, sensor data produced by the plurality of sensor devices; aggregating, by the sensor layer in the OS-absent firmware environment, the sensor data; selectively providing, by the sensor layer, the sensor data or aggregated sensor data to one or more firmware modules via the interface of the sensor layer; characterized in that the method further comprises selectively instantiating, by an environmental factor boot module in the OS-absent firmware environment, one or more drivers, based at least on one or more environmental factors associated with the sensor data or the aggregated sensor data.
A method by a first base station in a first radio access technology, RAT, the method comprising: receiving a first message, which is generated from a second base station in a second RAT, requesting a handover of a user equipment, UE, from a source cell associated with the second base station to a target cell associated with the first base station, the first message including coverage and quality condition information, a tracking area identity, TAI, of the source cell, a global base station identity, ID, of the second base station, and a global cell ID of the source cell, wherein the first message is received from the second base station via a mobility management entity in the first RAT; instructing the UE to measure the source cell while being connected to the target cell based on reception of the first message; receiving, from the UE, a report of a measurement performed based on the instruction; determining whether to transmit an unnecessary handover report based on the report of the measurement or the coverage and quality condition information; and transmitting , toward the second base station, based on the TAI of the source cell and the global base station ID of the second base station, a second message indicating that the handover is an unnecessary handover in case of determining to transmit the unnecessary handover report, wherein the second message includes the global base station ID of the second base station, the TAI of the source cell, and the global cell ID of the source cell. receiving a first message, which is generated from a second base station in a second RAT, requesting a handover of a user equipment, UE, from a source cell associated with the second base station to a target cell associated with the first base station, the first message including coverage and quality condition information, a tracking area identity, TAI, of the source cell, a global base station identity, ID, of the second base station, and a global cell ID of the source cell, wherein the first message is received from the second base station via a mobility management entity in the first RAT; instructing the UE to measure the source cell while being connected to the target cell based on reception of the first message; receiving, from the UE, a report of a measurement performed based on the instruction; determining whether to transmit an unnecessary handover report based on the report of the measurement or the coverage and quality condition information; and transmitting , toward the second base station, based on the TAI of the source cell and the global base station ID of the second base station, a second message indicating that the handover is an unnecessary handover in case of determining to transmit the unnecessary handover report, wherein the second message includes the global base station ID of the second base station, the TAI of the source cell, and the global cell ID of the source cell.
A robot (R) for transferring a care receiver, comprising: a movable block (M1); a rising & falling block (M2) arranged on the movable block; a tilting block (M3) set to the rising & falling block; an operating block (M4) arranged on the tilting block; and a pair of arms , wherein the tilting block has a main tilting part and an auxiliary tilting part arranged on the main tilting part; the auxiliary tilting part has auxiliary tilting elements , holding the arms, rotatably set at the both ends of a main tilting element of the main tilting part respectively; and each of the auxiliary tilting elements is tilted by a rotating force of a planetary gear through a force transmitting mechanism arranged in the main tilting element, wherein the auxiliary tilting element is rotated in the same direction as the tilting direction of the main tilting element. a movable block (M1); a rising & falling block (M2) arranged on the movable block; a tilting block (M3) set to the rising & falling block; an operating block (M4) arranged on the tilting block; and a pair of arms , wherein the tilting block has a main tilting part and an auxiliary tilting part arranged on the main tilting part; the auxiliary tilting part has auxiliary tilting elements , holding the arms, rotatably set at the both ends of a main tilting element of the main tilting part respectively; and each of the auxiliary tilting elements is tilted by a rotating force of a planetary gear through a force transmitting mechanism arranged in the main tilting element, wherein the auxiliary tilting element is rotated in the same direction as the tilting direction of the main tilting element.