mhurhangee/ep-ind-claims huggingface dataset:
A method for determining an abnormality in an assembled battery that is formed by connecting, in series, a plurality of parallel bodies each formed by connecting a plurality of secondary battery cells in parallel, the method comprising: - detecting swelling in each of the secondary battery cells by using a detection sensor mounted on each of the secondary battery cells; and - determining, based on swelling detected in two or more of the secondary battery cells, that an abnormality has occurred in a specific secondary battery cell among the two or more of the secondary battery cells, wherein the detection sensor has a polymer matrix layer, and the polymer matrix layer contains a filler that is dispersed therein and that changes an external field in accordance with a deformation of the polymer matrix layer, and the polymer matrix layer is attached to any of the secondary battery cells, and swelling of the secondary battery cells is detected by a change in the external field that accords to the deformation of the polymer matrix layer. - detecting swelling in each of the secondary battery cells by using a detection sensor mounted on each of the secondary battery cells; and - determining, based on swelling detected in two or more of the secondary battery cells, that an abnormality has occurred in a specific secondary battery cell among the two or more of the secondary battery cells,
A microphone system comprising: at least two microphones (108,109) in an end firing array configuration wherein the signals are processed to form a front cardioid signal corresponding to a front cardioid pattern and a rear cardioid signal corresponding to a rear cardioid pattern; a filter bank configured to separate the front cardioid signals and the rear cardioid signals from the at least two microphones into spectral bands; and a subtraction module configured to suppress background noise by adaptively subtracting in the spectral bands the spectral signals corresponding to a rear reference signal derived from the rear cardioid signals from the front cardioid signals; characterised in that the system comprises an adaptive filter that is updated when no speech is detected; and in that the end firing array is configured such that the microphone signals from the array have the front cardioid pattern directed to the front direction for picking up speech from a headset user and the rear cardioid pattern is directed to the rear of the headset user in an opposite direction from the direction of the front cardioid for picking up primarily ambient noise, the null of the rear cardioid pattern being positioned to point in the direction of the speech. at least two microphones (108,109) in an end firing array configuration wherein the signals are processed to form a front cardioid signal corresponding to a front cardioid pattern and a rear cardioid signal corresponding to a rear cardioid pattern; a filter bank configured to separate the front cardioid signals and the rear cardioid signals from the at least two microphones into spectral bands; and a subtraction module configured to suppress background noise by adaptively subtracting in the spectral bands the spectral signals corresponding to a rear reference signal derived from the rear cardioid signals from the front cardioid signals; characterised in that the system comprises an adaptive filter that is updated when no speech is detected; and in that the end firing array is configured such that the microphone signals from the array have the front cardioid pattern directed to the front direction for picking up speech from a headset user and the rear cardioid pattern is directed to the rear of the headset user in an opposite direction from the direction of the front cardioid for picking up primarily ambient noise, the null of the rear cardioid pattern being positioned to point in the direction of the speech.
A gas turbine engine comprising: a high spool including a thrust bearing configured to react thrust forces generated by the high spool; a first non-contacting dynamic seal that seals on an outer diameter with respect to said high spool, the seal comprising a first floating shoe adjacent to the high spool and radially outboard of a first static main body; a second non-contacting dynamic seal that seals on the outer diameter, the seal comprising a second floating shoe adjacent to the high spool and radially outboard of a second static main body; and a third non-contacting dynamic seal that seals on an inner diameter with respect to said high spool, the seal comprising a third floating shoe adjacent to the high spool and radially inboard of a third static main body, wherein the third seal and the first seal define a first secondary flow cavity, the third seal and the second seal define a second secondary flow cavity, said first seal is positioned aft of a high pressure compressor of said high spool, and said third seal is positioned radially between an outer shaft of said high spool and an inner diffuser case, said first seal is positioned radially inboard of an aft most high pressure compressor vane, said second seal is positioned forward of a high pressure turbine of the high spool and radially inboard of a forward most high pressure turbine vane, said third seal is located between the high pressure compressor and the high pressure turbine, and the first, second and third seals (84A, 84B, 86) are configured to seal between rotating and static components. a high spool including a thrust bearing configured to react thrust forces generated by the high spool; a first non-contacting dynamic seal that seals on an outer diameter with respect to said high spool, the seal comprising a first floating shoe adjacent to the high spool and radially outboard of a first static main body; a second non-contacting dynamic seal that seals on the outer diameter, the seal comprising a second floating shoe adjacent to the high spool and radially outboard of a second static main body; and a third non-contacting dynamic seal that seals on an inner diameter with respect to said high spool, the seal comprising a third floating shoe adjacent to the high spool and radially inboard of a third static main body, wherein the third seal and the first seal define a first secondary flow cavity, the third seal and the second seal define a second secondary flow cavity, said first seal is positioned aft of a high pressure compressor of said high spool, and said third seal is positioned radially between an outer shaft of said high spool and an inner diffuser case, said first seal is positioned radially inboard of an aft most high pressure compressor vane, said second seal is positioned forward of a high pressure turbine of the high spool and radially inboard of a forward most high pressure turbine vane, said third seal is located between the high pressure compressor and the high pressure turbine, and the first, second and third seals (84A, 84B, 86) are configured to seal between rotating and static components.
Method for conveying rod-like articles (21, 22) in the tobacco-processing industry, in particular filter cigarettes or rod-like components thereof, wherein the rod-like articles (21, 22) are conveyed, in a direction transverse to the axial direction, in receiving troughs of conveying drums (91, 92, 93) as the conveying drums (91, 92, 93) rotate, wherein the conveying drums (91, 92, 93), which each rotate or can rotate about their own axis of rotation, are arranged one behind the other in the direction in which the rod-like articles (21, 22) are conveyed, which is transverse to the axial direction, wherein the articles (21, 22) on a first conveying drum, which are arranged in at least one row one behind the other in a direction transverse to the axial direction, are conveyed in the receiving troughs, in a direction transverse to the axial direction, to a first transfer region between the first conveying drum and a second conveying drum and are transferred to the second conveying drum in the first transfer region, then the rod-like articles on the second conveying drum are conveyed to a second transfer region between the second conveying drum and a third conveying drum and are transferred to the third conveying drum in the second transfer region, wherein then the rod-like articles on the third conveying drum are further conveyed in the receiving troughs in a direction transverse to the axial direction, wherein the rod-like articles (21, 22) are transferred to the receiving troughs of the second conveying drum, wherein the receiving troughs of the second conveying drum are formed on pivotable arms of the second conveying drum, wherein the arms are pivoted about their respective pivot axes in each case by a pivot motion link as the conveying drums rotate through one revolution, characterised in that, by virtue of the pivot motion link, the receiving troughs execute at least two identical elliptical movement portions during one revolution, wherein the pivot motion link is adjusted as a function of the diameter of the rod-like articles to be conveyed by the second conveying drum.
A washing device of a filterpress comprising: - a support carriage, wherein said support carriage is adapted for slidingly mounting on sliding guides (6, 7) of the filterpress above a plurality of filtering plates aligned to each other along a longitudinal extension direction, - a washing group that comprises at least one nozzle that is adapted to supply a washing fluid flow, - first actuating means that is adapted to move said support carriage according to said longitudinal extension direction, - second actuating means that is adapted to move said washing group according to a top to down direction and vice-versa such that said washing group enters in a space defined between two filtering plates adjacent to each other in an open configuration, characterized in that said washing group comprises a roller shutter that is adapted to carry out the descent and ascent movements according to said top to down direction and vice- versa. - a support carriage, wherein said support carriage is adapted for slidingly mounting on sliding guides (6, 7) of the filterpress above a plurality of filtering plates aligned to each other along a longitudinal extension direction, - a washing group that comprises at least one nozzle that is adapted to supply a washing fluid flow, - first actuating means that is adapted to move said support carriage according to said longitudinal extension direction, - second actuating means that is adapted to move said washing group according to a top to down direction and vice-versa such that said washing group enters in a space defined between two filtering plates adjacent to each other in an open configuration,
An injection mold, comprising: a mold having a mold surface on which two or more deposition layers are laminated, wherein a first deposition layer comprises polytetrafluoroethylene (PTFE), and a second deposition layer comprises perfluoroalkoxy resin, wherein the first deposition layer has a thickness of 10 to 40 μm and wherein the second deposition layer has a thickness of 40 to 70 pm, and wherein the two or more deposition layers are sinter-hardened deposition layers. a mold having a mold surface on which two or more deposition layers are laminated, wherein a first deposition layer comprises polytetrafluoroethylene (PTFE), and a second deposition layer comprises perfluoroalkoxy resin, wherein the first deposition layer has a thickness of 10 to 40 μm and wherein the second deposition layer has a thickness of 40 to 70 pm, and wherein the two or more deposition layers are sinter-hardened deposition layers.
A method for use in an implantable hearing system and for generating a system model to match an output response of a motion sensor to at least a portion of an output response of an implanted microphone (12, 14, 15, 16, 17, 18), comprising: operating an implanted auditory stimulation device to stimulate a component of an auditory system; first sampling a microphone output response of an implanted microphone (12, 14, 15, 16, 17, 18) during operation of said implanted auditory stimulation device; second sampling a motion sensor output response of a motion sensor during operation of said implanted auditory stimulation device; generating a system model of a relationship of said microphone output response and said motion sensor output response; and implementing said system model as a filter in said implantable hearing system to adjust subsequent output responses of one of said implanted microphone (12, 14, 15, 16, 17, 18) and said motion sensor to match subsequent motion sensor output responses to at least a portion of subsequent microphone output responses, wherein said subsequent output responses are at least one of scaled, phase shifted and frequency-shaped to match a difference in frequency response between the motion sensor output response and the microphone output response. operating an implanted auditory stimulation device to stimulate a component of an auditory system; first sampling a microphone output response of an implanted microphone (12, 14, 15, 16, 17, 18) during operation of said implanted auditory stimulation device; second sampling a motion sensor output response of a motion sensor during operation of said implanted auditory stimulation device; generating a system model of a relationship of said microphone output response and said motion sensor output response; and implementing said system model as a filter in said implantable hearing system to adjust subsequent output responses of one of said implanted microphone (12, 14, 15, 16, 17, 18) and said motion sensor to match subsequent motion sensor output responses to at least a portion of subsequent microphone output responses, wherein said subsequent output responses are at least one of scaled, phase shifted and frequency-shaped to match a difference in frequency response between the motion sensor output response and the microphone output response.
An aqueous composition comprising 0.001 - 0.1 % (w/v) atropine or a salt thereof, a water-soluble polymer, and buffer, which is at a pH range of 6 or lower, wherein the buffer is at least one selected from the group consisting of a phosphate buffer and an aminocarboxylate buffer, wherein the water-soluble polymer is a cellulose derivative, and wherein the cellulose derivative is at least one selected from the group consisting of hydroxyethyl cellulose and hydroxypropyl methylcellulose.
A snow gliding device comprising - a first gliding surface - a first layer for heating said first gliding surface, characterised in that the first layer comprises: - a positive temperature coefficient superimposed impedance polymeric compound - a first and a second electrode, wherein said positive temperature coefficient superimposed impedance polymeric compound is at least partially sandwiched between said first and second electrode, and which first and second electrodes are adapted to provide a potential difference across said positive temperature coefficient superimposed impedance polymeric compound when connected to a power source, which first layer is arranged adjacent to and in thermal communication with said first gliding surface; wherein said snow gliding device further comprises: - a control circuitry for adjusting the potential difference provided to said positive temperature coefficient superimposed impedance polymeric compound in correspondence with a predetermined value, which control circuitry comprises an interface adapted to receive said predetermined value manually or wirelessly entered into said interface. - a first gliding surface - a first layer for heating said first gliding surface, characterised in that the first layer comprises: - a positive temperature coefficient superimposed impedance polymeric compound - a first and a second electrode, wherein said positive temperature coefficient superimposed impedance polymeric compound is at least partially sandwiched between said first and second electrode, and which first and second electrodes are adapted to provide a potential difference across said positive temperature coefficient superimposed impedance polymeric compound when connected to a power source, - a positive temperature coefficient superimposed impedance polymeric compound - a first and a second electrode, wherein said positive temperature coefficient superimposed impedance polymeric compound is at least partially sandwiched between said first and second electrode, and which first and second electrodes are adapted to provide a potential difference across said positive temperature coefficient superimposed impedance polymeric compound when connected to a power source, - a control circuitry for adjusting the potential difference provided to said positive temperature coefficient superimposed impedance polymeric compound in correspondence with a predetermined value, which control circuitry comprises an interface adapted to receive said predetermined value manually or wirelessly entered into said interface.
An actuator device, comprising: an actuator member, comprising an electroactive material being adapted to deform in response to application of an electrical stimulus; and particles of a soft magnetic material dispersed within the electroactive material; a magnetic field generation means operable to generate a magnetic field of a controllable field strength pattern for application to the actuator member; an electrical stimulus generation means; characterised by a controller operable to control the magnetic field generation means and the electrical stimulus generation means in a coordinated manner to thereby realize one or more deformation patterns in the actuator member. an actuator member, comprising an electroactive material being adapted to deform in response to application of an electrical stimulus; and particles of a soft magnetic material dispersed within the electroactive material; an electroactive material being adapted to deform in response to application of an electrical stimulus; and particles of a soft magnetic material dispersed within the electroactive material; a magnetic field generation means operable to generate a magnetic field of a controllable field strength pattern for application to the actuator member; an electrical stimulus generation means; characterised by a controller operable to control the magnetic field generation means and the electrical stimulus generation means in a coordinated manner to thereby realize one or more deformation patterns in the actuator member.
Shower tray unit, having a tub body, and a mounting frame which is configured to support the tub body, wherein the mounting frame is arranged underneath the tub body and is connected to an edge region of the tub body, so that a unit consisting of tub body and mounting frame is provided already in the factory, characterized in that the tub body has an edge reinforcement, which is made of resin and is inserted in a channel surrounding the underside of the tub body, the edge reinforcement being made of synthetic resin, wherein the edge reinforcement, surrounding and engaging behind the structures of the channel, forms a flat and, in the installed state, downward facing surface which serves as a contact surface for the mounting frame,the mounting frame being attached to the edge reinforcement by means of a permanently elastic adhesive. a tub body, and a mounting frame which is configured to support the tub body, wherein the mounting frame is arranged underneath the tub body and is connected to an edge region of the tub body, so that a unit consisting of tub body and mounting frame is provided already in the factory,
A method for wireless communications, comprising: receiving, at a user equipment, UE, from a base station, BS, a signal requesting the UE to transmit a sounding reference signal, SRS, and a control channel within a common uplink, UL, burst (412, 418) in each downlink, DL, centric sub-frame and each UL centric sub-frame communicated between the UE and the BS, wherein each DL centric sub-frame comprises a Physical Downlink Control Channel, PDCCH, a Physical downlink shared Channel, PDSCH, and a common UL burst and wherein each UL centric sub-frame comprises a PDCCH, a regular UL burst, and a common UL burst; transmitting, from the UE to the BS based upon the received signal, the common UL burst (412, 418) comprising the SRS and the control channel spanning the same frequency bandwidth in each DL centric sub-frame and each UL centric sub-frame communicated between the UE and the BS; the method characterised in that it further comprises: spreading, by the UE, the SRS using a Zadoff-Chu sequence or a pseudo-random sequence before transmitting the SRS within the common UL burst (412, 418); and modulating, by the UE, the spread SRS using Gaussian minimum shift keying, GMSK, modulation before transmitting the SRS within the common UL burst (412, 418). receiving, at a user equipment, UE, from a base station, BS, a signal requesting the UE to transmit a sounding reference signal, SRS, and a control channel within a common uplink, UL, burst (412, 418) in each downlink, DL, centric sub-frame and each UL centric sub-frame communicated between the UE and the BS, wherein each DL centric sub-frame comprises a Physical Downlink Control Channel, PDCCH, a Physical downlink shared Channel, PDSCH, and a common UL burst and wherein each UL centric sub-frame comprises a PDCCH, a regular UL burst, and a common UL burst; transmitting, from the UE to the BS based upon the received signal, the common UL burst (412, 418) comprising the SRS and the control channel spanning the same frequency bandwidth in each DL centric sub-frame and each UL centric sub-frame communicated between the UE and the BS; the method characterised in that it further comprises: spreading, by the UE, the SRS using a Zadoff-Chu sequence or a pseudo-random sequence before transmitting the SRS within the common UL burst (412, 418); and modulating, by the UE, the spread SRS using Gaussian minimum shift keying, GMSK, modulation before transmitting the SRS within the common UL burst (412, 418). spreading, by the UE, the SRS using a Zadoff-Chu sequence or a pseudo-random sequence before transmitting the SRS within the common UL burst (412, 418); and modulating, by the UE, the spread SRS using Gaussian minimum shift keying, GMSK, modulation before transmitting the SRS within the common UL burst (412, 418).
A solid electrolyte glass comprising compound of formula R 3-2x M x HalO wherein R is selected from the group consisting of lithium or sodium; M is selected from the group consisting of magnesium, calcium, strontium or barium; Hal is selected from the group consisting of fluorine, chlorine, bromine, iodine or mixtures thereof; X is the number of moles of M and 0 ≤ x ≤ 0.01; and the solid electrolyte glass has a glass transition point; wherein a glassy phase is obtainable by heating- cooling cycles up to 250 °C.
A cabin roof of a cabin for an agricultural working vehicle, comprising a lower shell and an upper shell between which a circumferential side wall is formed, wherein a section for the intake of air is disposed on one side of the cabin roof downstream of which an air treatment device is positioned in the cabin roof, wherein at least one removable cover element is disposed in a section of the circumferential side wall and closes off a receiving section for at least one filter element which extends between the lower shell and the upper shell, wherein in the mounted position, the cover element is flush with the circumferential side wall and has fastening sections for fastening to the upper shell which enable the cover element to be swivelled upwards in the direction of the upper shell and fastening elements are provided for releasably connecting the cover element to the lower shell, characterized in that the cover element is formed with webs (58a, 58b) which are disposed in pairs and which extend into sections of the interior of the cabin roof and which function to attach the at least one filter element, wherein the length of the webs (58a, 58b) is determined such that when the air filter is installed in the receiving section, the webs (58a, 58b) are supported on the frame of the air filter and attach them to the receiving section.