mhurhangee/ep-ind-claims huggingface dataset:
A water-conducting device comprising a container for receiving water and at least one treatment agent to be dissolved in the water, as well as articles to be treated and a dosing device for dosing the at least one treatment agent, wherein the device further comprises a controller and a measuring unit cooperating with the controller, characterized in that by means of the measuring unit, the foam resulting from the at least one treatment agent in the container can be detected, wherein data or a signal for the controller can be provided with the measuring unit, wherein the data and/or the signal represent the state of the foam or a parameter of the foam, and that the at least one treatment agent can be dosed by the dosing device in accordance with the data or the signal.
A method for estimating power consumption of an air conditioner, comprising: Acquiring types of n first air conditioners which are located in a same region with a second air conditioner, and operating parameters of each of the first air conditioners within a time period T, wherein the operating parameters include s times of powers P ix reported by each of the first air conditioners within the time period T and an operating time t ix corresponding to each power P ix; i = 1, 2,..., n; the n is a positive integer not less than 1; x = 1, 2,..., s; and the s is a positive integer not less than 1; determining power correction coefficients a; of the n first air conditioners according to the types of the n first air conditioners and the type of the second air conditioner; and calculating an estimated power consumption W1 of the second air conditioner within the time period T according to the operating parameters within the time period T and the power correction coefficient α i of each of the n first air conditioners. Acquiring types of n first air conditioners which are located in a same region with a second air conditioner, and operating parameters of each of the first air conditioners within a time period T, wherein the operating parameters include s times of powers P ix reported by each of the first air conditioners within the time period T and an operating time t ix corresponding to each power P ix; i = 1, 2,..., n; the n is a positive integer not less than 1; x = 1, 2,..., s; and the s is a positive integer not less than 1; determining power correction coefficients a; of the n first air conditioners according to the types of the n first air conditioners and the type of the second air conditioner; and calculating an estimated power consumption W1 of the second air conditioner within the time period T according to the operating parameters within the time period T and the power correction coefficient α i of each of the n first air conditioners.
A process for making at least one porous area (ZP, ZPL) in at least one part of an active layer of conducting or semi-conducting material of a microelectronic and/or nanoelectronic structure, said active layer forming a front face of a stack, said stack comprising a back face of conducting or semi-conducting material and an electrically insulating layer interposed between the active layer and the back face, said process comprising the steps of: a) making at least one electrical contact between the back face and the active layer by forming at least one contact block (14, 114) of electrically conducting or semi-conducting material through the insulating layer, b) placing the stack into an electrochemical bath, c) applying an electrical current between the back face and the active layer through the contact block (14, 114) so as to cause porosification of at least one area (ZP, ZPL) of the active layer. a) making at least one electrical contact between the back face and the active layer by forming at least one contact block (14, 114) of electrically conducting or semi-conducting material through the insulating layer, b) placing the stack into an electrochemical bath, c) applying an electrical current between the back face and the active layer through the contact block (14, 114) so as to cause porosification of at least one area (ZP, ZPL) of the active layer.
An in vitro method for the production of a mesenchymal stromal cell preparation, the method comprising: pooling bone marrow samples obtained from at least two genetically distinct donors to obtain a sample cell-pool, and thereafter isolating mesenchymal stromal cells from said sample cell-pool.
Heat exchanger housing for a heat exchanger arrangement for a fuel-operated vehicle heater, comprising a housing wall with a circumferential wall extending in the direction of a housing longitudinal axis and surrounding a housing longitudinal axis and a bottom wall arranged transversely to the housing longitudinal axis, further comprising a support arrangement formed integrally with the housing wall, wherein the support arrangement comprises at least one plate-like support element formed integrally with the housing wall for fastening to a support structure of a vehicle, wherein a fastening formation is provided on the at least one support element for fastening to the support structure, characterised in that at least one plate-like support element is connected to the circumferential wall by means of a plurality of connecting regions (44, 46, 48) forming an intermediate space (50, 52) between each other or/and that at least one plate-like support element (40") is connected to the bottom wall by means of a plurality of connecting regions (68, 70) forming an intermediate space between each other, and in that on each support element the fastening formation comprises a plurality of fastening element through-openings for fastening elements fastening the support element.
A method comprising: testing a connection speed of a plurality of viewer devices and classifying each of the plurality of viewer devices as either having a fast connection or a slow connection based on the connection speed, a fast connection being a connection which allows to receive feedback shortly after a prompt is sent; and subsequently: presenting a performance to the plurality of viewer devices through a remote network connection; receiving an audience response from each of the plurality of viewer devices through the remote network connection during the presentation of the performance; combining audience responses from viewer devices classified as having a fast connection into a single stream; abstracting audience responses from viewer devices classified as having a slow connection to general responses; combining the combined audience responses from viewer devices classified as having a fast connection and the abstracted audience responses from viewer devices classified as having a slow connection to a single media stream; and sending the combined media stream to each of the plurality of viewer devices during the performance. testing a connection speed of a plurality of viewer devices and classifying each of the plurality of viewer devices as either having a fast connection or a slow connection based on the connection speed, a fast connection being a connection which allows to receive feedback shortly after a prompt is sent; and subsequently: presenting a performance to the plurality of viewer devices through a remote network connection; receiving an audience response from each of the plurality of viewer devices through the remote network connection during the presentation of the performance; combining audience responses from viewer devices classified as having a fast connection into a single stream; abstracting audience responses from viewer devices classified as having a slow connection to general responses; combining the combined audience responses from viewer devices classified as having a fast connection and the abstracted audience responses from viewer devices classified as having a slow connection to a single media stream; and sending the combined media stream to each of the plurality of viewer devices during the performance. presenting a performance to the plurality of viewer devices through a remote network connection; receiving an audience response from each of the plurality of viewer devices through the remote network connection during the presentation of the performance; combining audience responses from viewer devices classified as having a fast connection into a single stream; abstracting audience responses from viewer devices classified as having a slow connection to general responses; combining the combined audience responses from viewer devices classified as having a fast connection and the abstracted audience responses from viewer devices classified as having a slow connection to a single media stream; and sending the combined media stream to each of the plurality of viewer devices during the performance.
A wireless communication method, wherein the method comprises: determining a target modulation and coding scheme, MCS, index, if a current MCS index exceeds a predetermined threshold, wherein the target MCS index is an MCS index less than or equal to the predetermined threshold; and mapping a phase tracking reference signal, PTRS, to one or more symbols or subcarriers based on the target MCS index; wherein when the predetermined threshold is 28, a value of the current MCS index is 29, 30, or 31; or when the predetermined threshold is 27, a value of the current MCS index is 28, 29, 30, or 31; wherein the determining a target MCS index comprises: using an MCS index used in an initial transmission as the target MCS index. determining a target modulation and coding scheme, MCS, index, if a current MCS index exceeds a predetermined threshold, wherein the target MCS index is an MCS index less than or equal to the predetermined threshold; and mapping a phase tracking reference signal, PTRS, to one or more symbols or subcarriers based on the target MCS index; wherein when the predetermined threshold is 28, a value of the current MCS index is 29, 30, or 31; or when the predetermined threshold is 27, a value of the current MCS index is 28, 29, 30, or 31; wherein the determining a target MCS index comprises: using an MCS index used in an initial transmission as the target MCS index.
Intermediate element for a medical extracorporeal fluid conduit which is adapted to guide blood, the intermediate element comprising: a base body extending between connecting parts (3, 4), wherein the base body and the connecting parts (3, 4) are continuously traversed by a flow channel for guiding the blood, and wherein the connecting parts (3, 4) are adapted to connect the base body to the fluid conduit for guiding the blood, and wherein a receptacle is peripherally arranged on the base body, which is adapted to receive a measuring transducer, and wherein an aperture to the flow channel is arranged on the receptacle in the base body, which aperture is closed fluid-tightly towards the receptacle by means of an elastic member, wherein the receptacle is adapted to receive a measuring transducer, configured as a gas sensor, of a sensor device for measuring at least one gas contained in the blood, and wherein the elastic member is a diffusion element permeable to at least one gas, wherein the diffusion element is materially connected in a connecting region to an edge of the aperture, characterised in that the diffusion element is formed as a diffusion foil of circular geometry and is biased towards the receptacle. a base body extending between connecting parts (3, 4), wherein the base body and the connecting parts (3, 4) are continuously traversed by a flow channel for guiding the blood, and wherein the connecting parts (3, 4) are adapted to connect the base body to the fluid conduit for guiding the blood, and wherein a receptacle is peripherally arranged on the base body, which is adapted to receive a measuring transducer, and wherein an aperture to the flow channel is arranged on the receptacle in the base body, which aperture is closed fluid-tightly towards the receptacle by means of an elastic member, wherein the receptacle is adapted to receive a measuring transducer, configured as a gas sensor, of a sensor device for measuring at least one gas contained in the blood, and wherein the elastic member is a diffusion element permeable to at least one gas, wherein the diffusion element is materially connected in a connecting region to an edge of the aperture, characterised in that the diffusion element is formed as a diffusion foil of circular geometry and is biased towards the receptacle.
A computer implemented method for stabilizing seismic signals by attenuating 4D-noise in recorded seismic signals, the method comprising: calculating one or more first reconstructed signals associated with a first receiver of a plurality of receivers, wherein each first reconstructed signal is based at least on first uncontrolled signals, generated by an uncontrolled source and recorded by a respective pair of receivers, the respective pair of receivers comprising the first receiver and a respective second receiver of the plurality of receivers; calculating one or more first signal variations, wherein each first signal variation is associated with a respective pair of receivers and based at least on a difference between the first reconstructed signal associated with the respective pair of receivers and a reference associated with the respective pair of receivers; characterized in that the method further comprises calculating a first stabilization factor for the first receiver based at least on the one or more first signal variations; and modifying one or more first controlled seismic signals, generated by a controlled source and recorded by the first receiver by applying the first stabilization factor to the one or more first controlled seismic signals, to attenuate 4D-noise in the first controlled seismic signals. calculating one or more first reconstructed signals associated with a first receiver of a plurality of receivers, wherein each first reconstructed signal is based at least on first uncontrolled signals, generated by an uncontrolled source and recorded by a respective pair of receivers, the respective pair of receivers comprising the first receiver and a respective second receiver of the plurality of receivers; calculating one or more first signal variations, wherein each first signal variation is associated with a respective pair of receivers and based at least on a difference between the first reconstructed signal associated with the respective pair of receivers and a reference associated with the respective pair of receivers; characterized in that the method further comprises calculating a first stabilization factor for the first receiver based at least on the one or more first signal variations; and modifying one or more first controlled seismic signals, generated by a controlled source and recorded by the first receiver by applying the first stabilization factor to the one or more first controlled seismic signals, to attenuate 4D-noise in the first controlled seismic signals.
A coupling arrangement comprising a first pipe section and a coupling for connecting the first pipe section with a second pipe section, the coupling consisting of only two pieces which are; - a bracket (1a; 1b) including a gripping part comprising one or more protrusions on a front section which are adapted to engage the second pipe section, an external threaded part comprising external threads and one or more axially-extending splits (9; 14) located on the threaded part, wherein the external threaded part of the bracket is mounted upon an annular recess of the first pipe section for locating a seal in a front portion of the first pipe section and - a nut including an internal threaded part comprising internal threads engaging to the external threads of the bracket. - a bracket (1a; 1b) including a gripping part comprising one or more protrusions on a front section which are adapted to engage the second pipe section, an external threaded part comprising external threads and one or more axially-extending splits (9; 14) located on the threaded part, wherein the external threaded part of the bracket is mounted upon an annular recess of the first pipe section for locating a seal in a front portion of the first pipe section and - a nut including an internal threaded part comprising internal threads engaging to the external threads of the bracket.
A primary electrochemical cell comprising a housing; a positive and a negative terminal; an anode comprising at least one of a lithium metal and lithium alloy; a cathode comprising iron disulfide (FeS 2), iron sulfide (FeS), and conductive carbon, said cell further comprising an electrolyte inserted therein, said electrolyte comprising a lithium salt comprising bistrifluoromethylsulfonyl imide (Li(CF 3 SO 2) 2 N) dissolved in a solvent mixture comprising dioxolane and sulfolane.
A control device for a cargo loading system on a cargo deck of a cargo aircraft, comprising the following: a plurality of selection switch elements (S1, S2, S3, S4) each for selecting a loading configuration (L1, L2, L3, L4); at least one first indicator device, comprising a display for outputting an at least partial depiction of the cargo deck, at least one second indicator device comprising a plurality of light source arrangements (13, 14) to be arranged on the cargo deck, in particular on system components of the cargo loading system, and a computing unit, which is designed to: a) determine a selected loading configuration (L1, L2, L3, L4) based on signals from at least some of the selection switch elements (S1, S2, S3, S4); b) use the selected loading configuration (L1, L2, L3, L4), determine an identification region on the cargo deck and/or an identification selection of system components; c) visualize the identification region and/or the identification selection using the first indicator device and the second indicator device (13, 14). a plurality of selection switch elements (S1, S2, S3, S4) each for selecting a loading configuration (L1, L2, L3, L4); at least one first indicator device, comprising a display for outputting an at least partial depiction of the cargo deck, at least one second indicator device comprising a plurality of light source arrangements (13, 14) to be arranged on the cargo deck, in particular on system components of the cargo loading system, and a computing unit, which is designed to: a) determine a selected loading configuration (L1, L2, L3, L4) based on signals from at least some of the selection switch elements (S1, S2, S3, S4); b) use the selected loading configuration (L1, L2, L3, L4), determine an identification region on the cargo deck and/or an identification selection of system components; c) visualize the identification region and/or the identification selection using the first indicator device and the second indicator device (13, 14). a) determine a selected loading configuration (L1, L2, L3, L4) based on signals from at least some of the selection switch elements (S1, S2, S3, S4); b) use the selected loading configuration (L1, L2, L3, L4), determine an identification region on the cargo deck and/or an identification selection of system components; c) visualize the identification region and/or the identification selection using the first indicator device and the second indicator device (13, 14).
An impact tool which performs a hammering operation by linearly moving a detachably coupled tool bit at least in an axial direction of the tool bit comprising a motor, a disk-shaped driving element, a striker that has a cylindrical shape with a bottom and houses the driving element which is slidable within the striker, and a first air chamber which is defined by an inner surface of the striker and an axial front end surface of the driving element, and pressure in the first air chamber fluctuates by reciprocating movement of the driving element, wherein the striker is driven by pressure fluctuation of the first air chamber in the axial direction of the tool bit, and drives the tool bit, characterized in that the impact tool further comprises a swinging member that swings in the axial direction of the tool bit by rotation of the motor, wherein the driving element is connected to the swinging member and reciprocates by swinging movement of the swinging member, and a sliding guide which is adapted to ensure a sliding performance of the driving element with respect to the striker, wherein the sliding guide is formed by a piston member which is formed integrally with the driving element and an inner circumferential wall surface of a cylindrical portion of an inner housing, which inner circumferential wall surface holds the piston member, the piston member being fitted into the inner circumferential wall surface such that it can slide in the axial direction of the tool bit, wherein the sliding guide and the driving element are disposed on the opposite sides of the swinging member to each other.
Retention collar for a connecting device, wherein the retention collar comprises first retaining projections, which are designed to be engageable into a first locking contour on the outside of a first fluid-conducting line, and wherein the retention collar comprises second retaining projections, which are designed to be engageable into a second locking contour on the outside of a second fluid-conducting line, wherein the first retaining projections are designed to be engageable into the first locking contour and wherein the second retaining projections are designed to be engageable into the second locking contour in order to limit an axial displacement of a first connecting section of the first fluid-conducting line relative to a second connecting section of the second fluid-conducting line, wherein first slots are arranged between the first retaining projections, wherein second slots are arranged between the second retaining projections, characterized in that the first retaining projections are arranged at an offset relative to the second retaining projections, and in that the first slots are arranged at an offset relative to the second slots, wherein the first slots are arranged at the level of the second retaining projections and wherein the second slots are arranged at the level of the first retaining projections.