mhurhangee/patent-ind-claim-en huggingface dataset:
Reconfigurable logic circuit comprising - a first, second and third switching circuit arranged for receiving a first (A) input bit, a second (B) input bit and a third (C) input bit, respectively, , and for receiving a plurality of configuration bits, said switching circuits arranged for being configured in a mode wherein the corresponding input bit is passed on or in a mode wherein a fixed logical zero or one is passed on, by setting configuration bits of said plurality, - a first exclusive OR logic block operable on the outputs of said first, second and third switching circuit and arranged to output a sum bit (S), - a fourth (D), fifth (E) and sixth (F) switching circuit arranged for receiving a fourth input bit, a fifth input bit and a sixth input bit and for receiving a further plurality of configuration bits and arranged for being configured in a mode wherein the corresponding input bit is passed on or in a mode wherein a fixed logical zero or one is passed on, by setting configuration bits of said further plurality, - a first, second and third AND logic block, each arranged for receiving a different pair of outputs formed from the outputs of said fourth, fifth and sixth switching circuit, - a second exclusive OR logic block operable on the outputs of said first, second and third AND logic block and arranged to produce a carry output bit (C out ). - a first, second and third switching circuit arranged for receiving a first (A) input bit, a second (B) input bit and a third (C) input bit, respectively, , and for receiving a plurality of configuration bits, said switching circuits arranged for being configured in a mode wherein the corresponding input bit is passed on or in a mode wherein a fixed logical zero or one is passed on, by setting configuration bits of said plurality, - a first exclusive OR logic block operable on the outputs of said first, second and third switching circuit and arranged to output a sum bit (S), - a fourth (D), fifth (E) and sixth (F) switching circuit arranged for receiving a fourth input bit, a fifth input bit and a sixth input bit and for receiving a further plurality of configuration bits and arranged for being configured in a mode wherein the corresponding input bit is passed on or in a mode wherein a fixed logical zero or one is passed on, by setting configuration bits of said further plurality, - a first, second and third AND logic block, each arranged for receiving a different pair of outputs formed from the outputs of said fourth, fifth and sixth switching circuit, - a second exclusive OR logic block operable on the outputs of said first, second and third AND logic block and arranged to produce a carry output bit (C out ).
A thermostat , comprising: - a housing , comprising: - a base ; - a display mount , wherein the display mount extends upwardly, sideways or downwardly in a cantilevered fashion from the base so that the display mount is located above, to one side of, or below the base in a normal operating position of the thermostat ; and - a case defining an interior volume extending between a front surface and a rear surface; - a touch-sensitive display configured to display visual media and receive user inputs, wherein the touch-sensitive display is attached to the display mount ; - processing electronics on a circuit board positioned at least partially within the interior volume of the case , wherein the processing electronics are configured to operate the touch-sensitive display ; and - a mounting bracket configured to attach to a mounting location, wherein the mounting bracket includes a first frame defining a first aperture and the case extends through the first aperture so that the first frame is located between the front and rear surfaces of the case , wherein the touch-sensitive display and the display mount are not opaque. - a housing , comprising: - a base ; - a display mount , wherein the display mount extends upwardly, sideways or downwardly in a cantilevered fashion from the base so that the display mount is located above, to one side of, or below the base in a normal operating position of the thermostat ; and - a case defining an interior volume extending between a front surface and a rear surface; - a base ; - a display mount , wherein the display mount extends upwardly, sideways or downwardly in a cantilevered fashion from the base so that the display mount is located above, to one side of, or below the base in a normal operating position of the thermostat ; and - a case defining an interior volume extending between a front surface and a rear surface; - a touch-sensitive display configured to display visual media and receive user inputs, wherein the touch-sensitive display is attached to the display mount ; - processing electronics on a circuit board positioned at least partially within the interior volume of the case , wherein the processing electronics are configured to operate the touch-sensitive display ; and - a mounting bracket configured to attach to a mounting location, wherein the mounting bracket includes a first frame defining a first aperture and the case extends through the first aperture so that the first frame is located between the front and rear surfaces of the case ,
A separating device for separating sections from a material web , wherein the separating device has at least one forward clamping device with at least one forward clamping point and at least one rear clamping device with at least one rear clamping point , and has at least one first stretching element , and wherein by moving at least the at least one first stretching element between at least one first traversing position and at least one first separation position, the separating device can be switched between at least one first traversing mode and at least one separation mode, and wherein a transport line is the shortest connection between the at least one forward clamping point and the at least one rear clamping point , said connection lying entirely within a vertical reference plane and traversing or forming a tangent to any component of the separating device on the respective same side as a transport path provided for the material web and/or the sections , wherein a first reference plane and a second reference plan are arranged spaced from one another in an axial direction (A), and wherein when the first stretching element is disposed in the at least one first separation position, a first transport line lying in the first reference plane and a second transport line lying in the second reference plane have different lengths, characterized in that in the at least one separation mode, the transport line is at least 2 mm longer than in the at least one traversing mode, and in that in the at least one separation mode, the transport line has a minimum radius of curvature of at least 0.05 mm, and in that the at least one first stretching element is arranged pivotably and/or rotatably about a first stretching axis , and in that the first stretching axis is oriented parallel to the axial direction (A).
Public transport land vehicle , in particular of the bus type, comprising a passenger compartment , intended to accommodate several persons, and at least one vertical column , called support column, placed in said passenger compartment and intended to be held by one or more persons located in said passenger compartment during the transport of said persons, said vertical support column being fixed to one and the same side panel of said passenger compartment in: - a first fixing area , called upper fixing area, located on a top portion of said side panel ; and - a second fixing area , called lower fixing area, located on a bottom portion of said side panel ; characterized in that in each of the fixing areas , the support column is fixed to a longitudinal profile extending in a longitudinal direction over at least a portion of said side panel . - a first fixing area , called upper fixing area, located on a top portion of said side panel ; and - a second fixing area , called lower fixing area, located on a bottom portion of said side panel ;
A blood separation device comprising: a centrifugal separator; a spinning membrane separator drive unit; a pump system; and a controller configured to control the pump system to convey blood into the centrifugal separator, control the centrifugal separator to separate red blood cells from the blood, and control the pump system to collect at least a portion of the separated red blood cells without actuating the spinning membrane separator drive unit. a centrifugal separator; a spinning membrane separator drive unit; a pump system; and a controller configured to control the pump system to convey blood into the centrifugal separator, control the centrifugal separator to separate red blood cells from the blood, and control the pump system to collect at least a portion of the separated red blood cells without actuating the spinning membrane separator drive unit. control the pump system to convey blood into the centrifugal separator, control the centrifugal separator to separate red blood cells from the blood, and control the pump system to collect at least a portion of the separated red blood cells without actuating the spinning membrane separator drive unit.
An input device comprising: a light guide configured to transmit light; a sensor assembly having a plurality of sensors that are configured to detect proximity of an object as a corresponding one or more inputs; a connection portion configured to form a communicative coupling to a computing device to communicate the one or more inputs received by the sensor assembly to the computing device ; and an outer layer disposed proximal to the light guide such that the light guide is positioned between the outer layer and the sensor assembly , the outer layer having a plurality of indications of inputs formed using openings in the outer layer such that light from the light guide is configured to pass through the openings to function as a backlight, the outer layer having a plurality of sub-layers arranged to have increasing levels of resistance to transmission of the light from the light guide ; the plurality of sub-layers comprising a mask sub-layer and color sub-layers (604-606) of different levels of resistance to transmission of the light from the light guide . a light guide configured to transmit light; a sensor assembly having a plurality of sensors that are configured to detect proximity of an object as a corresponding one or more inputs; a connection portion configured to form a communicative coupling to a computing device to communicate the one or more inputs received by the sensor assembly to the computing device ; and an outer layer disposed proximal to the light guide such that the light guide is positioned between the outer layer and the sensor assembly , the outer layer having a plurality of indications of inputs formed using openings in the outer layer such that light from the light guide is configured to pass through the openings to function as a backlight, the outer layer having a plurality of sub-layers arranged to have increasing levels of resistance to transmission of the light from the light guide ; the plurality of sub-layers comprising a mask sub-layer and color sub-layers (604-606) of different levels of resistance to transmission of the light from the light guide .
An illumination system, comprising: an excitation light source , adapted to provide an excitation light beam (B); a light combining device , disposed on a transmission path of the excitation light beam (B) emitted from the excitation light source; a filter module , disposed on a transmission path of the excitation light beam (B) emitted from the light combining device , wherein the filter module comprises a light passing-through area allowing the excitation light beam (B) to pass through and at least one filter area (F) reflecting the excitation light beam (B); and a wavelength conversion module , disposed on a transmission path of the excitation light beam (B) reflected by the at least one filter area (F), wherein the wavelength conversion module is adapted to convert the excitation light beam (B) reflected by the at least one filter area(F) into a converted light beam (CB) and reflect the converted light beam (CB) such that the converted light beam (CB) is transmitted towards the at least one filter area (F), and the excitation light beam (B) passing through the light passing-through area and the converted light beam (CB) passing through the at least one filter area (F) form an illumination light beam; characterized in that the light combining device comprises a dichroic portion and a reflection portion , wherein the dichroic portion and the reflection portion are formed on two physically-separated carrier boards, such that the dichroic portion and the reflection portion are separated from each other. an excitation light source , adapted to provide an excitation light beam (B); a light combining device , disposed on a transmission path of the excitation light beam (B) emitted from the excitation light source; a filter module , disposed on a transmission path of the excitation light beam (B) emitted from the light combining device , wherein the filter module comprises a light passing-through area allowing the excitation light beam (B) to pass through and at least one filter area (F) reflecting the excitation light beam (B); and a wavelength conversion module , disposed on a transmission path of the excitation light beam (B) reflected by the at least one filter area (F), wherein the wavelength conversion module is adapted to convert the excitation light beam (B) reflected by the at least one filter area(F) into a converted light beam (CB) and reflect the converted light beam (CB) such that the converted light beam (CB) is transmitted towards the at least one filter area (F), and the excitation light beam (B) passing through the light passing-through area and the converted light beam (CB) passing through the at least one filter area (F) form an illumination light beam;
Method for preventing stress cracking corrosion in tubes of erected and installed tube wall regions or tube wall segments of a steam generator wall of a steam generator or steam boiler of a power station fired with carbon-containing fuel, wherein the tubes of the tube wall regions or tube wall segments are composed of one of the steels T22, T23 or T24, and wherein an inert gas or an inert gas mixture is introduced into the tubes of the tube wall regions or tube wall segments which are composed of one of the steels T22, T23, T24, through which boiler water or steam formed therefrom flows when the power station is in operation, for reducing the oxygen content in the flow volume formed by the tubes before filling or refilling the steam generator or steam boiler with boiler water or steam, in a way to displace gaseous oxygen present in the respective flow volume of the tubes in the form of atmospheric oxygen.
An intravascular device , comprising: an elongate member having a proximal end, a distal end, and an inner lumen extending between the proximal end and the distal end; a ring electrode disposed at the distal end of the elongate member ; an ultrasound sensor disposed at a distal end of the ring electrode ; a first electrical conductor configured to convey an electrocardiogram signal from the ring electrode to a processor; and an adaptor member in the form of a cylindrical band connecting the first electrical conductor to the ring electrode , wherein the first electrical conductor comprises a tapered distal segment, wherein a distal portion of the tapered distal segment is attached to an inner surface of the adaptor member and a distal portion of the adaptor member is attached to the ring electrode , and wherein a proximal portion of the adaptor member is disposed within the elongate member , and the distal portion of the adaptor member is disposed within the ring electrode . an elongate member having a proximal end, a distal end, and an inner lumen extending between the proximal end and the distal end; a ring electrode disposed at the distal end of the elongate member ; an ultrasound sensor disposed at a distal end of the ring electrode ; a first electrical conductor configured to convey an electrocardiogram signal from the ring electrode to a processor; and an adaptor member in the form of a cylindrical band connecting the first electrical conductor to the ring electrode , wherein the first electrical conductor comprises a tapered distal segment, wherein a distal portion of the tapered distal segment is attached to an inner surface of the adaptor member and a distal portion of the adaptor member is attached to the ring electrode , and wherein a proximal portion of the adaptor member is disposed within the elongate member , and the distal portion of the adaptor member is disposed within the ring electrode .
A wet concrete composition, comprising from 140 to 220 l/m 3 of effective water in combination with: - at least 10% of the dry binder premix comprising, in mass proportions: - Portland clinker having a Blaine specific surface area comprised from 5500 to 8000 cm 2 /g, the minimum quantity of the said clinker by mass percentage relative to the total mass of the premix being determined according to the following formula (I): − 6.10 − 3 × BSS k + 75 in which BSS k is the Blaine specific surface area of the clinker given in cm 2 /g ; - fly ash; - at least one alkali sulfate, the quantity of alkali sulfate being such that the quantity of equivalent Na 2 O in the premix is greater than or equal to 5 % by mass percentage relative to the mass of fly ash; - at least one source of SO 3 , in a quantity such that the quantity of SO 3 in the premix is greater than or equal to 2 % by mass percentage relative to the mass of Portland clinker; - complementary materials having a Dv90 less than or equal to 200 μm selected from limestone powders; the quantity of clinker + the quantity of fly ash being greater than or equal to 75 %, preferably 78 %, by mass percentage relative to the total mass of the premix; the total quantity of clinker in the premix being strictly less than 60 % by mass percentage relative to the total mass of the premix, - up to 90 % of aggregates; the mass percentages of premix and aggregate being given relative to the total dry mass of the composition. - at least 10% of the dry binder premix comprising, in mass proportions: - Portland clinker having a Blaine specific surface area comprised from 5500 to 8000 cm 2 /g, the minimum quantity of the said clinker by mass percentage relative to the total mass of the premix being determined according to the following formula (I): − 6.10 − 3 × BSS k + 75 in which BSS k is the Blaine specific surface area of the clinker given in cm 2 /g ; - fly ash; - at least one alkali sulfate, the quantity of alkali sulfate being such that the quantity of equivalent Na 2 O in the premix is greater than or equal to 5 % by mass percentage relative to the mass of fly ash; - at least one source of SO 3 , in a quantity such that the quantity of SO 3 in the premix is greater than or equal to 2 % by mass percentage relative to the mass of Portland clinker; - complementary materials having a Dv90 less than or equal to 200 μm selected from limestone powders; the quantity of clinker + the quantity of fly ash being greater than or equal to 75 %, preferably 78 %, by mass percentage relative to the total mass of the premix; the total quantity of clinker in the premix being strictly less than 60 % by mass percentage relative to the total mass of the premix, - up to 90 % of aggregates;
A method for determining the concentration of an element of a heteroepitaxial layer, the method comprising: generating a reciprocal space map in Q z and Q x directions in a portion of a reciprocal space describing positions of diffracted X-ray peaks of a heteroepitaxial layer and of a substrate on which the heteroepitaxial layer is positioned; determining the position of a diffracted X-ray peak of the substrate in the reciprocal space map in the Q x direction; determining the expected position of the diffracted X-ray peak of the heteroepitaxial layer in the Q x direction based on the determined position of the diffracted X-ray peak of the substrate in the Q x direction; generating a scan of the heteroepitaxial layer in a Q z direction at the expected position in the Q x direction; and determining the concentration of a constituent element of the heteroepitaxial layer based on the scan. generating a reciprocal space map in Q z and Q x directions in a portion of a reciprocal space describing positions of diffracted X-ray peaks of a heteroepitaxial layer and of a substrate on which the heteroepitaxial layer is positioned; determining the position of a diffracted X-ray peak of the substrate in the reciprocal space map in the Q x direction; determining the expected position of the diffracted X-ray peak of the heteroepitaxial layer in the Q x direction based on the determined position of the diffracted X-ray peak of the substrate in the Q x direction; generating a scan of the heteroepitaxial layer in a Q z direction at the expected position in the Q x direction; and determining the concentration of a constituent element of the heteroepitaxial layer based on the scan.