mhurhangee/ep-ind-claims huggingface dataset:
A liquid laundry detergent composition comprising an anionic surfactant, a non-ionic surfactant, between 0.5wt% and 25wt% water and 0.05% and 2% by weight of the composition of a cationic polymer being an hydroxyethyl cellulose polymer derivatised with trimethyl ammonium substituted epoxide, wherein the anionic surfactant comprises fatty acid; and wherein; - the weight ratio of cationic polymer to anionic surfactant is less than 1:5; - the weight ratio of cationic polymer to non-ionic surfactant is more than 1:10; - the weight ratio of cationic polymer to total surfactant is less than 1:5; - and wherein the weight ratio of anionic to non-ionic surfactant is from 5:1 to 23:1, wherein 'total surfactant' means the level of all surfactant present in the liquid laundry detergent composition, including but not limited to all anionic, non-ionic and cationic surfactant. - the weight ratio of cationic polymer to anionic surfactant is less than 1:5; - the weight ratio of cationic polymer to non-ionic surfactant is more than 1:10; - the weight ratio of cationic polymer to total surfactant is less than 1:5; - and wherein the weight ratio of anionic to non-ionic surfactant is from 5:1 to 23:1,
An apparatus for detecting an opening and a closing of a slide-type mobile communication terminal having a main body and a sub-body mounted on said main body, said sub-body being movable relative to said main body in a sliding manner between the open position where said sub-body slides up so as to expose a part of said main body and the closed position where said sub-body slides down to completely cover said main body, comprising: a signal generating element of bar-type provided in said sub-body adapted to generate a predetermined signal; a first signal sensor and a second signal sensor provided at two positions separated by a predetermined interval in said main body so as to face said signal generating element respectively when said sub-body slides up and down relative to said main body, said first signal sensor and second signal sensor adapted to detect said predetermined signal, and a control unit adapted to determine a signal, characterized in that said control unit is adapted to determine whether said first and second signal sensors (210, 220) generate different types of signals, to detect a relative position of the sub-body and the main body in one of the first position and the second position when the different types of signals are generated, the first position corresponding to the sub-body fully slid up, the second position corresponding to the sub-body fully slid down, and to perform corresponding functions according to the detected relative position of the sub-body and the main body, wherein said first signal sensor is arranged so as to directly face said signal generating element with said sub-body being completely slid up the main body, wherein said second signal sensor is arranged so as to directly face said signal generating element with said sub-body completely covering said main body, wherein said control unit is adapted to recognize the open position of said sub-body fully sliding up if detecting a low signal from said first signal sensor and a high signal from said second signal sensor, wherein said control unit is adapted to recognize the close position of said sub-body fully sliding down if detecting a high signal from said first signal sensor and a low signal from said second signal sensor, and wherein said control unit is adapted to take no action if detecting the same signal, high or low, from both of said first and second signal sensors (210, 220).
A vehicle-mounted semiconductor device comprising: - a semiconductor substrate; - a plurality of active elements (221, 222) formed on the semiconductor substrate; - a plurality of double trenches (102,106) surrounding each of the plurality of active elements (221, 222) to insulate and separate the active elements; - a terminal (411,412,413) connecting in parallel the plurality of active elements (221, 222) insulated and separated by different trenches among the plurality of double trenches and connected to an outside, wherein the plurality of double trenches include a first double trench, a second double trench and a fourth double trench provided between the first double trench and the second double trench, the vehicle-mounted semiconductor device is characterized in that: the area surrounded by the fourth double trench is smaller than any of the areas surrounded by the first double trench and the second double trench. - a semiconductor substrate; - a plurality of active elements (221, 222) formed on the semiconductor substrate; - a plurality of double trenches (102,106) surrounding each of the plurality of active elements (221, 222) to insulate and separate the active elements; - a terminal (411,412,413) connecting in parallel the plurality of active elements (221, 222) insulated and separated by different trenches among the plurality of double trenches and connected to an outside, wherein the plurality of double trenches include a first double trench, a second double trench and a fourth double trench provided between the first double trench and the second double trench, the vehicle-mounted semiconductor device is characterized in that: the area surrounded by the fourth double trench is smaller than any of the areas surrounded by the first double trench and the second double trench.
An organic light emitting device comprising: a first electrode; a second electrode; and a plurality of organic material layers provided between the first electrode and the second electrode, comprising a first light emission layer, a second light emission layer, and a third light emission layer, wherein one of the light emission layers comprises a first light emission material and a second light emission material, wherein the first light emission material is a blue light emission material, and the second light emission material is a bluish green light emission material, wherein the one of the light emission layers comprises a fluorescent light emission host and a fluorescent light emission dopant, and the fluorescent light emission dopant comprises the first light emission material and the second light emission material, wherein the one of the light emission layers is the second light emission layer, wherein a maximum light emission peak wavelength λmax of the second light emission material has a gap of 40 to 80 nm compared to a maximum light emission peak wavelength λmax of the first light emission material, wherein the maximum light emission peak wavelength λmax of the second light emission material is 505 nm or more and 530 nm or less, wherein the first light emission layer and the third light emission layer are phosphorescent light emission layers, and the second light emission layer is a fluorescent light emission layer, and wherein the first light emission layer, the second light emission layer, and the third light emission layer are sequentially stacked on the first electrode. a first electrode; a second electrode; and a plurality of organic material layers provided between the first electrode and the second electrode, comprising a first light emission layer, a second light emission layer, and a third light emission layer, wherein one of the light emission layers comprises a first light emission material and a second light emission material, wherein the first light emission material is a blue light emission material, and the second light emission material is a bluish green light emission material, wherein the one of the light emission layers comprises a fluorescent light emission host and a fluorescent light emission dopant, and the fluorescent light emission dopant comprises the first light emission material and the second light emission material, wherein the one of the light emission layers is the second light emission layer, wherein a maximum light emission peak wavelength λmax of the second light emission material has a gap of 40 to 80 nm compared to a maximum light emission peak wavelength λmax of the first light emission material, wherein the maximum light emission peak wavelength λmax of the second light emission material is 505 nm or more and 530 nm or less, wherein the first light emission layer and the third light emission layer are phosphorescent light emission layers, and the second light emission layer is a fluorescent light emission layer, and wherein the first light emission layer, the second light emission layer, and the third light emission layer are sequentially stacked on the first electrode.
A method for diagnosing whether an individual suffers from the disease of fibromyalgia, which comprises the steps of: a) measuring the level of at least the miRNAs miR-223 and miR-451 in a peripheral blood sample taken from the individual; b) deciding that the patient suffers from disease of fibromyalgia if the level of at least one of the two analyzed miRNAs miR-223 and miR-451 has a value lower than a reference value, preferably wherein for each miRNA, its corresponding reference value is the average value of the levels of expression of said miRNA in healthy individuals. a) measuring the level of at least the miRNAs miR-223 and miR-451 in a peripheral blood sample taken from the individual; b) deciding that the patient suffers from disease of fibromyalgia if the level of at least one of the two analyzed miRNAs miR-223 and miR-451 has a value lower than a reference value, preferably wherein for each miRNA, its corresponding reference value is the average value of the levels of expression of said miRNA in healthy individuals.
A method for monitoring a communication system with the following steps: a) acquisition and storage in at least one first communication terminal (1, 2, 3) of the communication system of data on timeout events or faulty transmissions in relation to at least one signaling process of the at least one communication terminal (1, 2, 3) of the communication system for a quality evaluation of a signaling, which is independent of quality criteria of useful data streams, in the communication system; b) establishment of a collection of such data relevant to the evaluation of the signaling quality, and transmission (7, 8, 10) of said quality data collected in the at least one first communication terminal (1, 2, 3) pertaining to signaling connections to a collection point for said data in the communication system, and c) use of the data relevant to the evaluation of the signaling quality in the collection point. a) acquisition and storage in at least one first communication terminal (1, 2, 3) of the communication system of data on timeout events or faulty transmissions in relation to at least one signaling process of the at least one communication terminal (1, 2, 3) of the communication system for a quality evaluation of a signaling, which is independent of quality criteria of useful data streams, in the communication system; b) establishment of a collection of such data relevant to the evaluation of the signaling quality, and transmission (7, 8, 10) of said quality data collected in the at least one first communication terminal (1, 2, 3) pertaining to signaling connections to a collection point for said data in the communication system, and c) use of the data relevant to the evaluation of the signaling quality in the collection point.
Protection circuit of an electric motor having a single-phase winding, consisting of two coil sections (5, 6) having a centre tap, wherein the two winding ends of the coil sections (5, 6) are connected to earth by means of one field-effect transistor (8, 9) each, wherein a turn-off current of a coil section (5, 6) is discharged via an electrical power component wired in parallel with the field-effect transistor (8, 9), wherein an RC attenuation member, referred to as a snubber network, is wired between a winding end of one coil section (5, 6) and earth.
A long range coil and power source for a magnetic field generator comprising: a driver circuit having an input electrically coupled to a controller, said driver circuit generating an electric current in response to electrical signals from the controller; and a coil comprising a magnetically permeable cylinder core having a hollow center and a conductive wire wound about said magnetically permeable cylinder core, wherein a first end and a second end of the conductive wire are electrically coupled to an output of said driver circuit for receiving said electric current to create a magnetic field, characterized in that the magnetically permeable cylinder core comprises a plurality of component parts bound together by a binding material. a driver circuit having an input electrically coupled to a controller, said driver circuit generating an electric current in response to electrical signals from the controller; and a coil comprising a magnetically permeable cylinder core having a hollow center and a conductive wire wound about said magnetically permeable cylinder core, wherein a first end and a second end of the conductive wire are electrically coupled to an output of said driver circuit for receiving said electric current to create a magnetic field, characterized in that the magnetically permeable cylinder core comprises a plurality of component parts bound together by a binding material.
Exosome isolated from reticulocytes obtainable by a method which comprises: a) obtaining a blood sample infected with Plasmodium sp., b) optionally, isolating and culturing reticulocytes from the blood sample of a) c) obtaining the fraction of exosomes derived from reticulocytes by means of sequential ultracentrifugation of the blood sample from a) or b) for use in the prevention and prophylaxis against malaria. a) obtaining a blood sample infected with Plasmodium sp., b) optionally, isolating and culturing reticulocytes from the blood sample of a) c) obtaining the fraction of exosomes derived from reticulocytes by means of sequential ultracentrifugation of the blood sample from a) or b)
A integrated double cannula configured to be inserted into a blood vessel for ECMO, the integrated double cannula comprising a cannula body in which a blood introduction part and a blood supply part are integrally formed inside a single pipe with a partition wall being therebetween, wherein an end of the cannula body is opened through an end hole, another end of the cannula body is opened through an outlet and an inlet arranged side by side and connected respectively to the blood introduction part and the blood supply part, and one or more side holes and one or more discharge holes connected respectively to the blood introduction part and the blood supply part are formed in a lateral portion of the cannula body, the partition wall is provided in the cannula body to separate the blood introduction part and the blood supply part, the partition wall comprises a flexible material, the side hole and the discharge hole are spaced apart from each other along a longitudinal direction of the cannula body, and characterised in that the integrated double cannula further comprises a ring-shaped metallic marker between the side holes and the discharge holes.
Method for detecting a QRS complex of an electrocardiogram signal consisting in a reception of the ECG signal obtained by means of an ECG signal measuring module, monitoring the electrical heart activity of the patient, and in a calculation of the difference between the current instantaneous value of the ECG signal and an average value of the ECG signal determined for a time segment of a fixed length wherein an ABS_DIFF_SHORT signal generated at an output of an ABS_DIFF_SHORT_MODULE module is monitored using a COMP comparator, where said ABS_DIFF_SHORT signal is the difference between the current instantaneous value of the ECG signal, provided by an ECG_MODULE measurement module, and an average SHORT_AVG value of the ECG signal calculated for a T_SHORT time segment of a fixed length, then, by means of the COMP comparator, a moment when the ABS_DIFF_SHORT signal reaches a predetermined threshold TH value, determined by a TH_MODULE module, is detected, then, when a moment the ABS_DIFF_SHORT signal reaches the set threshold TH value, a countdown of a SEARCHING_WINDOW time window with a set length for a search for an R wave in the QRS complex of the EKG signal begins using a PULSE GENERATOR pulse generator, then a maximum value of the ABS_DIFF_LONG_MODULE produced on the output of a ABS_DIFF_LONG_MODULE module is recorded during the SEARCHING_WINDOW time window of the ABS_DIFF_LONG signal, using a PEAK_DETECTOR detection module, where said ABS_DIFF_LONG signal being the difference between the current instantaneous value of the ECG signal and a LONG_AVG average value of the ECG signal calculated for a T_LONG time segment of a fixed length and, at the same time, using the PEAK_DETECTOR detection module, the moment of occurrence of the detected maximum value of the ABS_DIFF_LONG signal during the SEARCHING_WINDOW time window is registered, then an R_AMPLITUDE_MEMORY memory module saves the maximum value of the ABS_DIFF_LONG signal, detected by the PEAK_DETECTOR detection module, which is considered to be the R wave amplitude in the QRS complex, and then an R_TIMESTAMP_MEMORY memory module records the moment of occurrence of the maximum value of the/a LONG_ABS_DIFF signal detected by the PEAK_DETECTOR detection module, where said LONG_ABS_DIFF value is considered to be the time of the R wave in the QRS complex, then, using the TH_MODULE module, a new TH threshold value is determined used to measure, using the PULSE_GENERATOR pulse generator, the beginning of the SEARCHING_WINDOW time window in the next cycle of the ECG signal, whereas the new TH threshold value is determined on the basis of the ABS_DIFF_SHORT signal maximum values detected by the PEAK_DETECTOR detection module and stored by the R_AMPLITUDE_MEMORY memory module of maximum values of ABS_DIFF_LONG values in the previous ECG signal cycles, followed by a return to monitoring using the COMP signal comparator of the ABS_DIFF_SHORT signal, generated on the output of the ABS_DIFF_SHORT_MODULE module on the basis of the ECG signal provided by the measuring module of the ECG signal, and then the entire cycle described above is repeated as many times as desired.
A LIDAR transmitter for projecting radiation of a laser beam on a distant target comprising an apparatus for shaping the laser beam profile, characterised in that said apparatus comprising: - a reformatting optical system configured to reformat a laser beam having a Gaussian intensity profile into a radiation beam having a top hat intensity profile; and - a Fourier transforming optical system (64,68,80) configured to transform the radiation beam having the top hat intensity profile into a radiation beam having a Bessel or sine function intensity profile at near-field and to provide a radiation beam having top hat intensity function or profile at far field at the location of the distant target. - a reformatting optical system configured to reformat a laser beam having a Gaussian intensity profile into a radiation beam having a top hat intensity profile; and - a Fourier transforming optical system (64,68,80) configured to transform the radiation beam having the top hat intensity profile into a radiation beam having a Bessel or sine function intensity profile at near-field and to provide a radiation beam having top hat intensity function or profile at far field at the location of the distant target.
Induction furnace including an infiltration crucible and a coil provided with windings wound around said crucible, said crucible being provided with walls (10, 11, 12) defining an infiltration chamber adapted to house a workpiece to be subjected to infiltration and a material to be infiltrated into porosities present in said workpiece, characterized in that - said infiltration chamber is defined inside said crucible; - said walls of the crucible are made in Carbon/Carbon and can be heated through inductive effect by said coil in order to heat said infiltration chamber to a temperature such as to enable melting of said material and to enable infiltration of said material into said workpiece; - said walls (10, 11, 12) include an upper plate, a lower plate and a lateral annular wall placed between said upper plate and said lower plate, said lateral annular wall being a substantially circular wall and said upper and lower plates being substantially disk-shaped plates; - said coil being adapted to heat said walls and in particular said plates, said heating taking place as a result of parasite currents induced inside said upper and lower plates (10,11) by an electromagnetic field produced by a passage of an alternating current in the coil. - said infiltration chamber is defined inside said crucible; - said walls of the crucible are made in Carbon/Carbon and can be heated through inductive effect by said coil in order to heat said infiltration chamber to a temperature such as to enable melting of said material and to enable infiltration of said material into said workpiece; - said walls (10, 11, 12) include an upper plate, a lower plate and a lateral annular wall placed between said upper plate and said lower plate, said lateral annular wall being a substantially circular wall and said upper and lower plates being substantially disk-shaped plates; - said coil being adapted to heat said walls and in particular said plates, said heating taking place as a result of parasite currents induced inside said upper and lower plates (10,11) by an electromagnetic field produced by a passage of an alternating current in the coil.
Cutting device comprising a box on whose horizontal working plane is positioned a work piece to be cut, first and second fastening means (7, 28) of the work piece on the working plane, an arm (2, 2 ') comprising a first portion and a second portion (2 '), said first portion having an end part and said second portion having a corresponding end part and a cutting device adapted to cut the piece, - said arm (2, 2') is sliding assembled, vertically along a first axis (y) and horizontally along a second axis (x), on the end part of the arm portion is inserted the cutting device(17,) able to perform a rotation of 360° with respect to its rotational vertical axis, parallel to the y axis, and rotations with respect to axes x and z, and on the end part of the arm portion is connected a motor box that moves the cutting device, the device being characterized in that; - said first fastening means comprise a plate, removable and interchangeable with others, positioned on top of the box and said second fastening means are positioned upward of the first fastening means allowing the firmly positioning of the work piece. - said arm (2, 2') is sliding assembled, vertically along a first axis (y) and horizontally along a second axis (x), on the end part of the arm portion is inserted the cutting device(17,) able to perform a rotation of 360° with respect to its rotational vertical axis, parallel to the y axis, and rotations with respect to axes x and z, and on the end part of the arm portion is connected a motor box that moves the cutting device, the device being characterized in that; - said first fastening means comprise a plate, removable and interchangeable with others, positioned on top of the box and said second fastening means are positioned upward of the first fastening means allowing the firmly positioning of the work piece.
Non-therapeutic use of Pogostone as an antibacterial disinfectant, wherein said bacteria are drug-resistant, wherein said drug-resistant bacteria are methicillin-resistant Staphylococcus aureus.
A holding plate for deposition and heat treatment that is used in a condition where the holding plate is heated, the holding plate comprising a large-sized plate material made of a poly-crystalline silicon or a pseudo-single-crystalline silicon, and a coating layer that coats a surface of the holding plate with micro-cracks, wherein the large-sized plate material has the dimension: width W being 500 mm to 1500 mm; length L being 500 mm to 1500 mm; and thickness H being 5 mm to 50 mm, the coating layer is composed of a product of silicon formed by reaction of the silicon on the surface, and a thickness of the coating layer is 15 nm or more and 600 nm or less.