mhurhangee/patent-ind-claim-en huggingface dataset:
A thread tensioning unit adjusting tension of an upper thread (N) to be fed to an embroidery head of an embroidery apparatus configured to calculate, from input embroidery data, an expected thread consumption amount and an assumed feeding speed of the upper thread associated with the expected thread consumption amount, the thread tensioning unit being configured to be provided at a preceding stage of the embroidery head , the thread tensioning unit comprising: a feeding mechanism configured to feed the upper thread, a speed detection mechanism configured to detect a feeding speed of the upper thread; and a tensioning mechanism configured to adjust the tension of the upper thread according to a detected feeding speed of the upper thread detected by the speed detection mechanism, wherein the tensioning mechanism is configured to adjust the tension of the upper thread in response to a difference between the assumed feeding speed of the upper thread calculated by the embroidery apparatus and the detected feeding speed of the upper thread detected by the speed detection mechanism. a feeding mechanism configured to feed the upper thread, a speed detection mechanism configured to detect a feeding speed of the upper thread; and a tensioning mechanism configured to adjust the tension of the upper thread according to a detected feeding speed of the upper thread detected by the speed detection mechanism, wherein the tensioning mechanism is configured to adjust the tension of the upper thread in response to a difference between the assumed feeding speed of the upper thread calculated by the embroidery apparatus and the detected feeding speed of the upper thread detected by the speed detection mechanism.
A lubricating oil composition comprising: a base oil with a kinematic viscosity at 40 degrees C in a range from 1 mm 2 /s to 200 mm 2 /s, a viscosity index of 80 or more and a sulfur content of less than 0.03 mass%; a component (A) being a poly(meth)acrylate compound with a mass average molecular weight in a range from 10,000 to 100,000, measured as a polystyrene equivalent by gel permeation chromatography method; a component (B) being at least one of phosphorus compounds represented by a formula below, where R is a hydrogen atom or an alkyl group having 4 or less carbon atoms, and X is an oxygen atom or a sulfur atom, and a boron-modified polybutenylsuccinimide, wherein a content of the component (B) is in a range from 0.5 mass% to 1.0 mass% of a total amount of the composition, and a viscosity index of the composition is 160 or more. a base oil with a kinematic viscosity at 40 degrees C in a range from 1 mm 2 /s to 200 mm 2 /s, a viscosity index of 80 or more and a sulfur content of less than 0.03 mass%; a component (A) being a poly(meth)acrylate compound with a mass average molecular weight in a range from 10,000 to 100,000, measured as a polystyrene equivalent by gel permeation chromatography method; a component (B) being at least one of phosphorus compounds represented by a formula below, where R is a hydrogen atom or an alkyl group having 4 or less carbon atoms, and X is an oxygen atom or a sulfur atom, and a boron-modified polybutenylsuccinimide, wherein a content of the component (B) is in a range from 0.5 mass% to 1.0 mass% of a total amount of the composition, and a viscosity index of the composition is 160 or more.
An apparatus, comprising: a probe , configured for insertion into a body cavity having a blood pool of a patient and comprising a contact force sensor for measuring a force applied to the contact force sensor and location sensors for detecting a location of the probe in the body cavity; and a processor , which is configured to receive a plurality of measurements from the contact force sensor and operative for: generating an image of the blood pool based on image data received from an external imaging modality; removing a portion of the blood pool from the image to retain a remaining portion of the blood pool thereon, wherein the removed portion comprises a portion of the blood pool adjacent to a surface of the body cavity; and presenting a location of a distal segment of the probe on the image. a probe , configured for insertion into a body cavity having a blood pool of a patient and comprising a contact force sensor for measuring a force applied to the contact force sensor and location sensors for detecting a location of the probe in the body cavity; and a processor , which is configured to receive a plurality of measurements from the contact force sensor and operative for: generating an image of the blood pool based on image data received from an external imaging modality; removing a portion of the blood pool from the image to retain a remaining portion of the blood pool thereon, wherein the removed portion comprises a portion of the blood pool adjacent to a surface of the body cavity; and presenting a location of a distal segment of the probe on the image. generating an image of the blood pool based on image data received from an external imaging modality; removing a portion of the blood pool from the image to retain a remaining portion of the blood pool thereon, wherein the removed portion comprises a portion of the blood pool adjacent to a surface of the body cavity; and presenting a location of a distal segment of the probe on the image.
A system for providing negative pressure therapy, the system comprising: a negative-pressure source ; an energy source ; and a switch comprising: a first conductor electrically coupled to the negative-pressure source ; a second conductor electrically coupled to the energy source ; and a diaphragm having a first position electrically coupling the first conductor to the second conductor and a second position separated from the first conductor and the second conductor , the diaphragm configured to move between the first position and the second position in response to a differential between a control pressure and a therapy pressure. a negative-pressure source ; an energy source ; and a switch comprising: a first conductor electrically coupled to the negative-pressure source ; a second conductor electrically coupled to the energy source ; and a diaphragm having a first position electrically coupling the first conductor to the second conductor and a second position separated from the first conductor and the second conductor , the diaphragm configured to move between the first position and the second position in response to a differential between a control pressure and a therapy pressure. a first conductor electrically coupled to the negative-pressure source ; a second conductor electrically coupled to the energy source ; and a diaphragm having a first position electrically coupling the first conductor to the second conductor and a second position separated from the first conductor and the second conductor , the diaphragm configured to move between the first position and the second position in response to a differential between a control pressure and a therapy pressure.
A harness assembly , comprising: a cable having a cable shielding around at least a portion of a plurality of wires ; a connector with an integrated backshell arranged at an angle with respect to the cable ; an external braid disposed around at least a portion of the backshell and the cable ; and an overbraid around at least a portion of the external braid ; characterized by the overbraid having two layers ; wherein the overbraid is a single material folded over at least a portion of itself to form the two layers ; and wherein an end of the overbraid is secured to the cable . a cable having a cable shielding around at least a portion of a plurality of wires ; a connector with an integrated backshell arranged at an angle with respect to the cable ; an external braid disposed around at least a portion of the backshell and the cable ; and an overbraid around at least a portion of the external braid ; characterized by the overbraid having two layers ; wherein the overbraid is a single material folded over at least a portion of itself to form the two layers ; and wherein an end of the overbraid is secured to the cable .
A method for measuring interference to a cable modem, CM, comprising: sending (S210), by a cable modem termination system, CMTS, a broadcast message to all CMs connected to the CMTS, wherein the broadcast message comprises information designating one of the CMs to send a probing signal by using a spectrum S in a timeslot T, and the spectrum S is one of overlapping parts between uplink and downlink spectrums; broadcasting (S230), by the CMTS, a pseudo random binary sequence, PRBS, by using the spectrum S in a downlink direction in the timeslot T; and obtaining (S250), by the CMTS, modulation error ratio MER information recorded in the timeslot T by other CMs, and using a difference between MER information in the timeslot T and MER information in a normal data timeslot, of each of the other CMs, as intensity of interference to the corresponding CM, wherein the other CMs are CMs remaining after the designated CM is removed from all the CMs connected to the CMTS, and the normal data timeslot is a timeslot in which the CMTS sends service data in the downlink direction, and wherein the obtained MER information recorded in the timeslot T by the other CMs reflect a signal distortion status of each CM in a test environment in which the designated CM sends the probing signal by using the designated spectrum S in the uplink direction, and the CMTS broadcasts a PRBS by using the spectrum S in the downlink direction. sending (S210), by a cable modem termination system, CMTS, a broadcast message to all CMs connected to the CMTS, wherein the broadcast message comprises information designating one of the CMs to send a probing signal by using a spectrum S in a timeslot T, and the spectrum S is one of overlapping parts between uplink and downlink spectrums; broadcasting (S230), by the CMTS, a pseudo random binary sequence, PRBS, by using the spectrum S in a downlink direction in the timeslot T; and obtaining (S250), by the CMTS, modulation error ratio MER information recorded in the timeslot T by other CMs, and using a difference between MER information in the timeslot T and MER information in a normal data timeslot, of each of the other CMs, as intensity of interference to the corresponding CM, wherein the other CMs are CMs remaining after the designated CM is removed from all the CMs connected to the CMTS, and the normal data timeslot is a timeslot in which the CMTS sends service data in the downlink direction, and wherein the obtained MER information recorded in the timeslot T by the other CMs reflect a signal distortion status of each CM in a test environment in which the designated CM sends the probing signal by using the designated spectrum S in the uplink direction, and the CMTS broadcasts a PRBS by using the spectrum S in the downlink direction.
A partial carbonization treatment method of a biomass material comprising the steps of: maintaining a water-containing biomass material having a water content (percentage) within a range of 40 to 80%, inclusive, at the start of partial carbonization, under treatment conditions including an oxygen-containing atmosphere and a temperature range of 70°C or greater and less than 100°C, without a drying step for removing or reducing the water forcibly; and producing an oxidation reaction between oxygen in the atmosphere and the biomass material to partially carbonize the biomass material in the presence of water to produce carbon dioxide; wherein the biomass material is one material or a mixture of two or more materials selected from food waste, livestock excrement, agricultural waste and marine waste; wherein the biomass material is stored in a container comprising a container main body covered with a lid, an intake port and an exhaust port for air or oxygen from the outside; and wherein the biomass material is thus maintained for two weeks or longer. maintaining a water-containing biomass material having a water content (percentage) within a range of 40 to 80%, inclusive, at the start of partial carbonization, under treatment conditions including an oxygen-containing atmosphere and a temperature range of 70°C or greater and less than 100°C, without a drying step for removing or reducing the water forcibly; and producing an oxidation reaction between oxygen in the atmosphere and the biomass material to partially carbonize the biomass material in the presence of water to produce carbon dioxide; wherein the biomass material is one material or a mixture of two or more materials selected from food waste, livestock excrement, agricultural waste and marine waste; wherein the biomass material is stored in a container comprising a container main body covered with a lid, an intake port and an exhaust port for air or oxygen from the outside; and wherein the biomass material is thus maintained for two weeks or longer.
A medical device for detecting a cardiac event, comprising: sensing circuitry configured to receive a cardiac signal from a plurality of electrodes coupled to the medical device; and a processor configured to: identify R-waves in the cardiac signal attendant ventricular depolarizations over a predetermined time period; determine RR-intervals between successive R-waves in the sensed cardiac signal over the predetermined time period, classify the predetermined time period as detecting an atrial tachyarrhythmia based on an analysis of the RR-intervals; iteratively sense groups of a predetermined number of P-waves attendant atrial depolarizations over a subsequent predetermined time period in response to classifying the predetermined time period as detecting the atrial tachyarrhythmia; and confirm the atrial tachyarrhythmia based on an analysis of the iteratively sensed groups of P-waves. sensing circuitry configured to receive a cardiac signal from a plurality of electrodes coupled to the medical device; and a processor configured to: identify R-waves in the cardiac signal attendant ventricular depolarizations over a predetermined time period; determine RR-intervals between successive R-waves in the sensed cardiac signal over the predetermined time period, classify the predetermined time period as detecting an atrial tachyarrhythmia based on an analysis of the RR-intervals; iteratively sense groups of a predetermined number of P-waves attendant atrial depolarizations over a subsequent predetermined time period in response to classifying the predetermined time period as detecting the atrial tachyarrhythmia; and confirm the atrial tachyarrhythmia based on an analysis of the iteratively sensed groups of P-waves. identify R-waves in the cardiac signal attendant ventricular depolarizations over a predetermined time period; determine RR-intervals between successive R-waves in the sensed cardiac signal over the predetermined time period, classify the predetermined time period as detecting an atrial tachyarrhythmia based on an analysis of the RR-intervals; iteratively sense groups of a predetermined number of P-waves attendant atrial depolarizations over a subsequent predetermined time period in response to classifying the predetermined time period as detecting the atrial tachyarrhythmia; and confirm the atrial tachyarrhythmia based on an analysis of the iteratively sensed groups of P-waves.
A multilayer film including two outer layers, at least one tie layer, at least one inner layer, and a gas barrier layer, wherein the gas barrier layer is arranged between the outer layers, and at least one of the outer layers is a foam layer, wherein the multilayer film has an elastic modulus of about 13.78 MPa to about 275.6 MPa when measured according to ASTM D882, and wherein at least one of the outer foam layer, inner layers, tie layers, and barrier layer comprises a vinyl-bond rich triblock copolymer.
Method for generating a result image (EB) using a tomosynthesis device that has a plurality of stationary X-ray sources , including at least the following steps: - detecting (I) at least one faulty X-ray source , - adapting (V) a reconstruction for the purpose of compensating for the faulty X-ray source , and - generating (VI) the result image (EB) by means of the adapted reconstruction. - detecting (I) at least one faulty X-ray source , - adapting (V) a reconstruction for the purpose of compensating for the faulty X-ray source , and - generating (VI) the result image (EB) by means of the adapted reconstruction.
Plant for the production of nonwoven fabric, comprising: - a support structure provided with a main channel extended along a vertical axis (Y) from an upper inlet mouth for the introduction of filaments for forming a nonwoven fabric, to a lower outlet mouth for the expulsion of said filaments; - an adjustment station , which is extended along said vertical axis (Y) below said inlet mouth and comprises at least two stretch walls , which are extended opposite each other with respect to said vertical axis (Y) and are provided with two respective internal faces , which define between them a stretch section in said main channel , and with two opposite external faces (9") externally directed with respect to said main channel ; said plant being characterized in that it comprises first deformation means mechanically constrained to the external faces (9") of the stretch walls of said adjustment station in order to deform the stretch section of said main channel and comprising: - at least one first deformable member mechanically fixed on the external face (9") of a first stretch wall of said stretch walls and extended at least along a first transverse axis (X') orthogonal to said vertical axis (Y); - at least one second deformable member (11") mechanically fixed on the external face (9") of a second stretch wall of said stretch walls and extended at least along a second transverse axis (X") orthogonal to said vertical axis (Y) and parallel to said first transverse axis (X'); said first deformable member and said second deformable member (11") being actuatable at least between a rest configuration, in which they are extended substantially parallel to each other, and a deformation configuration, in which they define two corresponding curved profiles, in order to vary the shape of the stretch section of said main channel . - a support structure provided with a main channel extended along a vertical axis (Y) from an upper inlet mouth for the introduction of filaments for forming a nonwoven fabric, to a lower outlet mouth for the expulsion of said filaments; - an adjustment station , which is extended along said vertical axis (Y) below said inlet mouth and comprises at least two stretch walls , which are extended opposite each other with respect to said vertical axis (Y) and are provided with two respective internal faces , which define between them a stretch section in said main channel , and with two opposite external faces (9") externally directed with respect to said main channel ; - at least one first deformable member mechanically fixed on the external face (9") of a first stretch wall of said stretch walls and extended at least along a first transverse axis (X') orthogonal to said vertical axis (Y); - at least one second deformable member (11") mechanically fixed on the external face (9") of a second stretch wall of said stretch walls and extended at least along a second transverse axis (X") orthogonal to said vertical axis (Y) and parallel to said first transverse axis (X');
An integrated circuit comprising: one or more processors ; at least one memory controller ; and a first circuit coupled to the one or more processors and to the memory controller, wherein the first circuit is configured to remain powered up during times that the one or more processors and the memory controller are powered down, and wherein the first circuit is configured to receive audio samples captured by one or more audio input devices and to detect a predetermined pattern in the audio samples during a time that the one or more processors and the memory controller are powered down, and wherein the first circuit is configured to cause the memory controller and the one or more processors to power up responsive to detecting the predetermined pattern, and characterised in that the first circuit is configured to write the audio samples that match the predetermined pattern and subsequently-received samples to memory through the memory controller during a time that the memory controller is available to receive write operations but the one or more processors are not ready to process samples. one or more processors ; at least one memory controller ; and a first circuit coupled to the one or more processors and to the memory controller, wherein the first circuit is configured to remain powered up during times that the one or more processors and the memory controller are powered down, and wherein the first circuit is configured to receive audio samples captured by one or more audio input devices and to detect a predetermined pattern in the audio samples during a time that the one or more processors and the memory controller are powered down, and wherein the first circuit is configured to cause the memory controller and the one or more processors to power up responsive to detecting the predetermined pattern, and characterised in that the first circuit is configured to write the audio samples that match the predetermined pattern and subsequently-received samples to memory through the memory controller during a time that the memory controller is available to receive write operations but the one or more processors are not ready to process samples.
A method of adaptively transmitting a data stream over an IP, Internet Protocol, network to a plurality of client devices connected to a common mobile base station, the method being performed by a node and comprising: for at least one respective outgoing data stream being transmitted to a respective client device, analyzing at least one data stream characteristic of a corresponding received data stream of at least one of said respective client devices; determining at least one system characteristic of access technology type or network type; selecting, based at least in part on the analysis, a lower adaptive bitrate, ABR, level; and providing a transmission strategy for applying the selected ABR level per client device for said at least one respective outgoing data stream based on (i) said analyzed data stream characteristics, and (ii) the at least one system characteristic; wherein said transmission strategy is coordinated for ABR for said plurality of client devices connected to the common mobile base station, such that when shared capacity is exhausted, said plurality of client devices are instructed to request retransmission only for audio and images. for at least one respective outgoing data stream being transmitted to a respective client device, analyzing at least one data stream characteristic of a corresponding received data stream of at least one of said respective client devices; determining at least one system characteristic of access technology type or network type; selecting, based at least in part on the analysis, a lower adaptive bitrate, ABR, level; and providing a transmission strategy for applying the selected ABR level per client device for said at least one respective outgoing data stream based on (i) said analyzed data stream characteristics, and (ii) the at least one system characteristic; wherein said transmission strategy is coordinated for ABR for said plurality of client devices connected to the common mobile base station, such that when shared capacity is exhausted, said plurality of client devices are instructed to request retransmission only for audio and images.