mhurhangee/ep-ind-claims huggingface dataset:
A facial mask for use in decreasing the transmission of one or more than one human pathogen to and from a human wearer of the facial mask, the facial mask comprising: a) a facepiece comprising a front side, a back side and a perimeter around the front side and back side, and the facepiece is configured to cover the mouth and nose of the wearer of the facial mask; and b) one or more than one extension attached to the facepiece for securing the facial mask to the head of the wearer; where the facepiece comprises a material comprising three or more than three layers; where one or more than one of the three or more than three layers comprises a cellulose fabric having a hydroxyl group or an amino group, the fabric comprising one or more than one binding substance; where the one or more than one binding substance comprises one or more than one human pathogen binding group for chemically attaching the human pathogen to the binding substance; where the human pathogen binding group is selected from the group consisting of a sulfate group and a sulfonate group; where the fabric further comprises one or more than one type of multivalent metallic ion or metallic salt; and where one or more than one of the three or more than three layers comprises a heat-moldable fabric; characterized in that the human pathogen binding group is covalently bound to the hydroxyl group of the fabric; and if sulfated, the fabric has a degree of sulfation between 0.02 and 2. a) a facepiece comprising a front side, a back side and a perimeter around the front side and back side, and the facepiece is configured to cover the mouth and nose of the wearer of the facial mask; and b) one or more than one extension attached to the facepiece for securing the facial mask to the head of the wearer;
A composition comprising a) a peptide with the amino acid sequence SEQ ID NO: 82; b) a peptide with the amino acid sequence SEQ ID NO: 271; c) a peptide with the amino acid sequence SEQ ID NO: 268; d) a peptide with the amino acid sequence SEQ ID NO: 266; and e) a peptide with the amino acid sequence SEQ ID NO: 62. a) a peptide with the amino acid sequence SEQ ID NO: 82; b) a peptide with the amino acid sequence SEQ ID NO: 271; c) a peptide with the amino acid sequence SEQ ID NO: 268; d) a peptide with the amino acid sequence SEQ ID NO: 266; and e) a peptide with the amino acid sequence SEQ ID NO: 62.
Installation for the dry transformation of a material structure of semi-finished products, in particular for dry bainitization, having a quenching chamber and having heating and/or cooling means for setting the temperature which prevails in the interior of the quenching chamber, wherein the inner wall of the quenching chamber at least partially comprises a heating and/or cooling surface, and wherein, at least during a quenching process for the semi-finished products, heating and/or cooling means at least approximately impart to the inner wall the temperature intended for the structure transformation, characterized in that provision is made of a fluid circuit, preferably having a pump, for a temperature-controlling heat exchange fluid, wherein the heat exchange fluid is arranged between the inner wall and an outer wall of the quenching chamber.
A driver controlling device, comprising: a supporting function storing unit which stores information of supportable functions of a driver in a function table; a function obtaining unit which obtains information of one or more functions of a new driver to be used described in model dependent data of the new driver; a determining unit which determines whether the information of the one or more functions of the new driver obtained by the function obtaining unit has been stored in the function table; a displaying unit which displays different user interfaces in dependence on a determination made by the determining unit of whether there is a particular function of the one or more functions of the new driver that has not been stored in the function table. a supporting function storing unit which stores information of supportable functions of a driver in a function table; a function obtaining unit which obtains information of one or more functions of a new driver to be used described in model dependent data of the new driver; a determining unit which determines whether the information of the one or more functions of the new driver obtained by the function obtaining unit has been stored in the function table; a displaying unit which displays different user interfaces in dependence on a determination made by the determining unit of whether there is a particular function of the one or more functions of the new driver that has not been stored in the function table.
A variant CBH 1 cellulase derived from Hypocrea jecorina CBH 1 as set out in SEQ ID NO: 2 by one substitution or deletion, wherein said variant CBH 1 cellulase has an increased melting temperature as compared to Hypocrea jecorina CBH 1 as set out in SEQ ID NO: 2, wherein SEQ ID NO:2 is shown in Figure 1, upper line, and wherein the one substitution or deletion is at position D249.
Apparatus for location-detection of a plurality of objects within a region, comprising; a reflective element mountable on each object of the plurality; a plurality of reflective objects mounted at extremities of the region; a scanning light source adapted to issue a beam of light in a scanning pattern illuminating a point that moves over the region; a detector for light reflected from the reflective elements or the reflective objects; and a control unit adapted to report the position of an object based on the point in the scanning pattern at which the detector detects light returned from the reflective element relative to at least one point in the scanning pattern at which the detector detects light returned from a reflective object. a reflective element mountable on each object of the plurality; a plurality of reflective objects mounted at extremities of the region; a scanning light source adapted to issue a beam of light in a scanning pattern illuminating a point that moves over the region; a detector for light reflected from the reflective elements or the reflective objects; and a control unit adapted to report the position of an object based on the point in the scanning pattern at which the detector detects light returned from the reflective element relative to at least one point in the scanning pattern at which the detector detects light returned from a reflective object.
A method for detecting a fault of a submarine device, comprising: receiving (101, 201) an optical detection signal at the submarine device, and transmitting the optical detection signal to an input optical detection signal side along a preset loop; changing (102, 203), according to change of an ambient environment state parameter, an optical parameter of the optical detection signal transmitted to the input optical detection signal side when a fault occurs, so that the input optical detection signal side judges that the fault occurs according to the change of the optical parameter of the optical detection signal; and characterized in that the changing (102, 203), according to the change of the ambient environment state parameter, the optical parameter of the optical detection signal when the fault occurs comprises: adjusting, by a transmissive optical component used for transmitting the optical detection signal or a reflective optical component used for reflecting the optical detection signal, a refractive index of its own optical component by perceiving the change of the ambient environment state parameter; and changing the optical parameter of the optical detection signal according to the adjusted refractive index of the transmissive optical component or the reflective optical component. receiving (101, 201) an optical detection signal at the submarine device, and transmitting the optical detection signal to an input optical detection signal side along a preset loop; changing (102, 203), according to change of an ambient environment state parameter, an optical parameter of the optical detection signal transmitted to the input optical detection signal side when a fault occurs, so that the input optical detection signal side judges that the fault occurs according to the change of the optical parameter of the optical detection signal; and characterized in that the changing (102, 203), according to the change of the ambient environment state parameter, the optical parameter of the optical detection signal when the fault occurs comprises: adjusting, by a transmissive optical component used for transmitting the optical detection signal or a reflective optical component used for reflecting the optical detection signal, a refractive index of its own optical component by perceiving the change of the ambient environment state parameter; and changing the optical parameter of the optical detection signal according to the adjusted refractive index of the transmissive optical component or the reflective optical component. adjusting, by a transmissive optical component used for transmitting the optical detection signal or a reflective optical component used for reflecting the optical detection signal, a refractive index of its own optical component by perceiving the change of the ambient environment state parameter; and changing the optical parameter of the optical detection signal according to the adjusted refractive index of the transmissive optical component or the reflective optical component.
A truncated translating contact lens, the lens comprising: an inner optic zone having at least both a first vision correction region, and a second vision correction region, the first vision correction region being superior in position to the second vision correction region and configured for correcting far vision needs, the second vision correction region being inferior in position to the first vision correction region and configured for correcting near vision needs; an outer peripheral zone surrounding the inner optic zone; the outer peripheral zone having a back surface radius of curvature and a variable thickness variation wherein said variable thickness variation is 0.3mm or less within the outer peripheral region, wherein the back surface radius of curvature is nonuniform and the outer peripheral region further comprises an inferior portion, a superior portion, and an intervening transition portion located between the inferior and superior portions, wherein the back surface radius of curvature is comprised of an first back surface radius of curvature and a second back surface radius of curvature wherein the first back surface radius of curvature is located in the inferior portion of the peripheral region and has a radius of curvature that is constant within the inferior region and the first back surface radius of curvature is smaller than the second back surface radius of curvature, and wherein the second back surface radius of curvature is constant and located in the superior portion of the peripheral region, wherein the first back surface radius of curvature smoothly and continually transitions to the second back surface radius of curvature wherein the transition from the first radius of curvature to the second radius of curvature occurs in the intervening transition portion.
A method for handling, by a master evolved NodeB, MeNB, in dual connectivity, evolved universal terrestrial radio access network, E-UTRAN, radio access bearer, E-RAB, switch failure for dual connectivity in a wireless communication system, the method comprising: transmitting an E-RAB modification indication message including a list of E-RABs to be modified and a list of E-RABs not to be modified to a mobility management entity, MME; receiving an E-RAB modification confirm message including a list of E-RABs failed to be modified from the MME in a response to the E-RAB modification indication message, wherein at least one E-RAB among the E-RABs failed to be modified is associated with a secondary cell group, SCG, bearer which is added to a secondary evolved NodeB, SeNB; keeping old general packet radio service, GPRS, tunneling protocol, GTP, tunnels for the E-RABs failed to be modified; and triggering a secondary eNB, SeNB, modification procedure for releasing the SCG bearer for the E-RAB among the E-RABs failed to be modified, wherein a user equipment, UE, is connected to both the MeNB and the SeNB in the dual connectivity. transmitting an E-RAB modification indication message including a list of E-RABs to be modified and a list of E-RABs not to be modified to a mobility management entity, MME; receiving an E-RAB modification confirm message including a list of E-RABs failed to be modified from the MME in a response to the E-RAB modification indication message, wherein at least one E-RAB among the E-RABs failed to be modified is associated with a secondary cell group, SCG, bearer which is added to a secondary evolved NodeB, SeNB; keeping old general packet radio service, GPRS, tunneling protocol, GTP, tunnels for the E-RABs failed to be modified; and triggering a secondary eNB, SeNB, modification procedure for releasing the SCG bearer for the E-RAB among the E-RABs failed to be modified, wherein a user equipment, UE, is connected to both the MeNB and the SeNB in the dual connectivity.
A composition for a heat cycle system, comprising: a working fluid for heat cycle containing at least one compound selected from a hydrochlorofluoroolefin and a chlorofluoroolefin represented by the following formula (a), and a mixed refrigeration oil containing a naphthenic mineral oil and at least one refrigeration oil selected from a paraffinic mineral oil, an alkylbenzene, an olefin polymer, a polyol ester refrigeration oil, a polyvinyl ether refrigeration oil and a polyalkylene glycol refrigeration oil, wherein the mixed refrigeration oil has a kinematic viscosity at 40°C of 300 mm 2 /sec or lower, a mixture (mixed composition 1) of the working fluid for heat cycle and the mixed refrigeration oil at a concentration of the working fluid for heat cycle of 10 mass% has a viscosity at 60°C of 10.5 mPa·s or higher, and a mixture (mixed composition 2) of the working fluid for heat cycle and the mixed refrigeration oil at a concentration of the mixed refrigeration oil of 5 mass% has a two phase separation temperature of 0°C or lower: wherein R a is each independently a fluorine atom, a chlorine atom or a hydrogen atom, R b is (CR a 2) n Y, Y is CF 3, n is 0 or 1, and at least one R a is a chlorine atom. a working fluid for heat cycle containing at least one compound selected from a hydrochlorofluoroolefin and a chlorofluoroolefin represented by the following formula (a), and a mixed refrigeration oil containing a naphthenic mineral oil and at least one refrigeration oil selected from a paraffinic mineral oil, an alkylbenzene, an olefin polymer, a polyol ester refrigeration oil, a polyvinyl ether refrigeration oil and a polyalkylene glycol refrigeration oil, wherein the mixed refrigeration oil has a kinematic viscosity at 40°C of 300 mm 2 /sec or lower, a mixture (mixed composition 1) of the working fluid for heat cycle and the mixed refrigeration oil at a concentration of the working fluid for heat cycle of 10 mass% has a viscosity at 60°C of 10.5 mPa·s or higher, and a mixture (mixed composition 2) of the working fluid for heat cycle and the mixed refrigeration oil at a concentration of the mixed refrigeration oil of 5 mass% has a two phase separation temperature of 0°C or lower:
A rotation angle detecting device that includes a detection rotor that rotates in accordance with rotation of a rotor and that has a plurality of magnetic poles (M0-M9), and a sensor that outputs three sinusoidal signals (V1-V3) which have a phase difference of a predetermined degree in accordance with rotation of the detection rotor, the rotation angle detecting device detecting a rotation angle of the rotor based on the sinusoidal signals, comprising: a signal reading unit that reads the sinusoidal signals in each predetermined computation cycle; and a detecting unit that detects a magnetic pole transition in at least one of the sinusoidal signals (V1-V3) on the basis of the sinusoidal signals read by the signal reading unit, wherein when the sinusoidal signal in which a magnetic pole transition is detected is a first sinusoidal signal, one of the other two sinusoidal signals is a second sinusoidal signal and the other one of the other two sinusoidal signals is a third sinusoidal signal, the detecting unit detects a magnetic pole transition in the first sinusoidal signal based on a current value of one of the second sinusoidal signal and the third sinusoidal signal, an absolute value of a difference between an immediately preceding value and the current value of the one of the second and third sinusoidal signals being larger than an absolute value of a difference between an immediately preceding value and the current value of the other of the second and third sinusoidal signals, an immediately preceding value of the first sinusoidal signal and a current value of the first sinusoidal signal. a signal reading unit that reads the sinusoidal signals in each predetermined computation cycle; and a detecting unit that detects a magnetic pole transition in at least one of the sinusoidal signals (V1-V3) on the basis of the sinusoidal signals read by the signal reading unit, wherein when the sinusoidal signal in which a magnetic pole transition is detected is a first sinusoidal signal, one of the other two sinusoidal signals is a second sinusoidal signal and the other one of the other two sinusoidal signals is a third sinusoidal signal, the detecting unit detects a magnetic pole transition in the first sinusoidal signal based on a current value of one of the second sinusoidal signal and the third sinusoidal signal, an absolute value of a difference between an immediately preceding value and the current value of the one of the second and third sinusoidal signals being larger than an absolute value of a difference between an immediately preceding value and the current value of the other of the second and third sinusoidal signals, an immediately preceding value of the first sinusoidal signal and a current value of the first sinusoidal signal.
A computing device comprising: a dynamic vapor chamber comprising a wick structure with a valve (313, 314), the valve (313, 314) being operable to regulate an amount of working fluid of the dynamic vapor chamber to different regions of the dynamic vapor chamber based on a position of the valve (126; 313, 314); a battery physically connected to and in thermal communication with the dynamic vapor chamber; a sensor (206a, 206b) operable to determine a temperature of the battery; and a first heat generating component physically and thermally connected to the dynamic vapor chamber, and wherein the first heat generating component or a second heat generating component is configured to: compare the determined temperature to a predetermined temperature; and control the valve (126; 313, 314) based on the comparison. a dynamic vapor chamber comprising a wick structure with a valve (313, 314), the valve (313, 314) being operable to regulate an amount of working fluid of the dynamic vapor chamber to different regions of the dynamic vapor chamber based on a position of the valve (126; 313, 314); a battery physically connected to and in thermal communication with the dynamic vapor chamber; a sensor (206a, 206b) operable to determine a temperature of the battery; and a first heat generating component physically and thermally connected to the dynamic vapor chamber, and wherein the first heat generating component or a second heat generating component is configured to: compare the determined temperature to a predetermined temperature; and control the valve (126; 313, 314) based on the comparison. compare the determined temperature to a predetermined temperature; and control the valve (126; 313, 314) based on the comparison.
Device for closing off an opening formed in the bodywork of an automobile vehicle, comprising a fixed structure wherein is defined an aperture, and at least one sliding panel having a surround bearing at least two guiding pegs (21, 22), mobile in relation to said fixed structure between: - a closing off position of said aperture, in the plane formed by said fixed structure; and - a sliding position, in a plane of sliding substantially parallel to said plane formed by said fixed structure, said sliding panel being moved by remaining permanently parallel to this plane, said fixed structure bearing, on its face turned towards the interior of said vehicle, at least one guide rail of said sliding panel, defining an axis of sliding, and in which is housed at least one slide having a guiding groove to accept each of said guiding pegs (21, 22), said guiding grooves being substantially identical and having an inclined portion forming an angle between 1 and 89° with said axis of sliding; said rail comprises at least one locking strike plate, able to cooperate with one of said guiding pegs (21,22) in said closing off position, in such a way as to lock said sliding panel, said device being characterised in that it comprises: - a guide element fastened to said sliding panel, said slide and said guide element being guided in one of said guide rails, said guide element being movable relative to the surround of the sliding panel according to a direction perpendicular to the plane of the sliding panel; and - return means intended for controlling a relative movement of said slide(s) (25, 31) in relation to said guide element according to said axis of sliding, in such a way as to allow for a displacement of said sliding panel according to a direction perpendicular to the plane of said fixed structure. - a closing off position of said aperture, in the plane formed by said fixed structure; and - a sliding position, in a plane of sliding substantially parallel to said plane formed by said fixed structure, said sliding panel being moved by remaining permanently parallel to this plane, - a guide element fastened to said sliding panel, said slide and said guide element being guided in one of said guide rails, said guide element being movable relative to the surround of the sliding panel according to a direction perpendicular to the plane of the sliding panel; and - return means intended for controlling a relative movement of said slide(s) (25, 31) in relation to said guide element according to said axis of sliding,
An aircraft cabin comprising a passenger seating arrangement, the seating arrangement comprising a multiplicity of substantially identical pairs of seat units, the pairs of seat units being located directly behind one another, each seat unit having a longitudinal axis, and each pair of seat units comprising an aisle-seat unit bordering an aisle to one side, and a non-aisle-seat unit positioned to the other side of the aisle-seat unit, all the aisle-seat units facing in the same, first, direction, all the non-aisle-seat units facing in the same, second, direction, each seat unit (7, 9) being configurable between a seating configuration and a flat-bed configuration, the longitudinal axes of the non-aisle-seat units being arranged in-line with one another and being substantially parallel to the longitudinal axis of the aircraft cabin, and characterised in that the longitudinal axis of the aisle-seat unit of each pair of seat units is angled relative to the longitudinal axis of the non-aisle-seat unit, so as to provide a passenger access path linking the non-aisle-seat unit of a pair, with the aisle, at least part of the passenger access path being angled at an acute angle relative to the longitudinal axis of the non-aisle seat unit.