mhurhangee/ep-ind-claims huggingface dataset:
Capsule filling machine having a machine frame on which is rotatably mounted a turntable, having a rotation axis running in the vertical direction (z), for transporting capsules to be filled to different processing stations (5, 6, 7), wherein one of the processing stations comprises a weighing installation for capsules, wherein the machine frame is provided with a machine table and with machine frame feet for placing on a floor, wherein the weighing installation has a weighing frame which is provided with dedicated weighing frame feet for placing independently on the floor; wherein the machine table has a cutout with an encircling periphery; wherein the weighing installation is positioned in the cutout so as to have a spacing from the periphery of said cutout on all sides; wherein the capsule filling machine furthermore comprises a sealing collar which extends along a longitudinal axis that runs at least predominantly in the vertical direction (z), and which has two ends (18, 19) that lie on top of one another in terms of the longitudinal axis, and which comprises a casing which encircles the longitudinal axis; wherein the sealing collar in the region of one of its ends (18, 19) encloses the cutout in the machine table and is connected there in a sealing manner to the machine table in the region of the encircling periphery, and wherein the sealing collar in the region of its other end (19, 18) encloses the weighing frame and is connected there in a sealing manner to the weighing frame.
A method for determining a gain dataset representing gain coefficients of a two-dimensional X-ray detector (115, 215, 315) for reducing ring artifacts in medical X-ray imaging, the method comprising the steps of: providing a first gain dataset representing a first X-ray image (G(x,y)), which is generated by direct X-radiation being emitted from an X-ray source (105, 205, 305) and detected by the X-ray detector (115, 215, 315) in the absence of an object of interest (110, 210, 310), obtaining a second gain dataset representing a second X-ray image, which is based on scattered X-radiation being emitted from the X-ray source (105, 205, 305) and detected by the X-ray detector (115, 215, 315) in the presence of a predetermined object (110, 210, 310), characterized by the step of obtaining a second gain dataset comprising estimating the second gain dataset by using the fraction of scattered X-radiation being detected by the X-ray detector (115, 215, 315) as compared to the total X-radiation (307a, 307b) being detected by the X-ray detector (115, 215, 315), wherein the second gain dataset is defined by <G(x,y)>*X, representing an offset value taking into account the fraction of scattered radiation, wherein <G(x,y)> is the average intensity of the first image G(x,y) within a predefined area of interest and wherein X is the estimated fraction of scattered radiation compared to the total radiation within the predefined area of interest, and combining the first gain dataset with the second gain dataset to give the gain dataset. providing a first gain dataset representing a first X-ray image (G(x,y)), which is generated by direct X-radiation being emitted from an X-ray source (105, 205, 305) and detected by the X-ray detector (115, 215, 315) in the absence of an object of interest (110, 210, 310), obtaining a second gain dataset representing a second X-ray image, which is based on scattered X-radiation being emitted from the X-ray source (105, 205, 305) and detected by the X-ray detector (115, 215, 315) in the presence of a predetermined object (110, 210, 310), characterized by the step of obtaining a second gain dataset comprising estimating the second gain dataset by using the fraction of scattered X-radiation being detected by the X-ray detector (115, 215, 315) as compared to the total X-radiation (307a, 307b) being detected by the X-ray detector (115, 215, 315), wherein the second gain dataset is defined by <G(x,y)>*X, representing an offset value taking into account the fraction of scattered radiation, wherein <G(x,y)> is the average intensity of the first image G(x,y) within a predefined area of interest and wherein X is the estimated fraction of scattered radiation compared to the total radiation within the predefined area of interest, and combining the first gain dataset with the second gain dataset to give the gain dataset.
A shoe comprising: a first forming portion provided on a medial side and a second forming portion provided on a lateral side across a central opening formed forward from a foot insertion portion of an upper on each of which a string passing portion is formed; a first support member a tip end of which is fixed to the second forming portion, including a first string passing structure provided at the tip end, and extending downward so as to abut a medial side of a foot; a second support member a tip end of which is fixed to the first forming portion, including a second string passing structure provided at the tip end, and extending downward so as to abut a lateral side of the foot; and a shoelace which passes through the string passing portion and continuously passes through the first and second string passing structures (32g and 34g). a first forming portion provided on a medial side and a second forming portion provided on a lateral side across a central opening formed forward from a foot insertion portion of an upper on each of which a string passing portion is formed; a first support member a tip end of which is fixed to the second forming portion, including a first string passing structure provided at the tip end, and extending downward so as to abut a medial side of a foot; a second support member a tip end of which is fixed to the first forming portion, including a second string passing structure provided at the tip end, and extending downward so as to abut a lateral side of the foot; and a shoelace which passes through the string passing portion and continuously passes through the first and second string passing structures (32g and 34g).
Brake control apparatus for at least four fluidically operable, in particular hydraulically operable, wheel brakes (50, 51, 52, 53) of a vehicle brake system, which brake control apparatus comprises at least one input pressure connection, a wheel-specific output pressure connection (40, 41, 42, 43) for each wheel brake, a pressure regulating valve arrangement (72, 3, 6, 8, 9) for adjusting wheel-specific brake pressures at the output pressure connections, and at least one pressure source (73, 1), characterized in that the brake control apparatus comprises a wheel-specific input pressure connection (30, 31, 32, 33) for each wheel brake (50, 51, 52, 53).
A pharmaceutical composition comprising a carrier and a polypeptide for use in therapy wherein the polypeptide comprises an amino acid sequence having at least 80% homology to SEQ ID NO. 12, wherein the polypeptide: (i) has reduced catalytic activity; (ii) is capable of binding to a factor Xa inhibitor; and (iii) cannot assemble into the prothrombinase complex. (i) has reduced catalytic activity; (ii) is capable of binding to a factor Xa inhibitor; and (iii) cannot assemble into the prothrombinase complex.
Method for controlling the selectivity of electrical protection devices of an installation comprising at least one upstream electrical device and at least one downstream electrical device and an information and selectivity processing means (1, 2, 33, 34), said devices being equipped with a communication means, characterised in that the method comprises the following steps: - inputting, into the information processing means (1, 2, 33, 34), of data representing a wiring diagram of the installation, - communication of electrical device settings between at least one of said electrical devices and the information processing means (1, 2, 33, 34), - calculation of the selectivity, by the information processing means (1, 2, 33, 34), of the electrical devices as a function of said electrical device settings and of said data of the wiring diagram, - adjustment of at least one of the electrical devices as a function of new settings determined by the selectivity calculation, - storage and communication of data representing the new settings and of said selectivity data, - monitoring, by the information processing means (1, 2, 33, 34), of a change of settings and/or of a change of device, and - checking, by the information processing means (1, 2, 33, 34), of compatibility between said new settings after a change and the selectivity calculation. - inputting, into the information processing means (1, 2, 33, 34), of data representing a wiring diagram of the installation, - communication of electrical device settings between at least one of said electrical devices and the information processing means (1, 2, 33, 34), - calculation of the selectivity, by the information processing means (1, 2, 33, 34), of the electrical devices as a function of said electrical device settings and of said data of the wiring diagram, - adjustment of at least one of the electrical devices as a function of new settings determined by the selectivity calculation, - storage and communication of data representing the new settings and of said selectivity data, - monitoring, by the information processing means (1, 2, 33, 34), of a change of settings and/or of a change of device, and - checking, by the information processing means (1, 2, 33, 34), of compatibility between said new settings after a change and the selectivity calculation.
A casing for accommodating battery module, characterized in that, the casing comprising: a housing comprising a bottom plate and a side plate connected to the bottom plate, wherein the bottom plate and the side plate enclose an accommodating space, and the bottom plate is provided with a plurality of recesses opening to the accommodating space; and a buffer assembly comprising at least a first buffer member, which is disposed corresponding to the recess, the bottom plate comprises an inner surface and an outer surface opposite to each other, wherein the recess is located on the inner surface, the first buffer member is filled in the recess, an inner bottom surface of the recess is lower than the inner surface of the bottom plate, the first buffer member is made of an elastic material, the buffer assembly further comprises a second buffer member disposed at a side of the first buffer member away from the bottom plate; the second buffer member comprises an elastic sheet, there are one or more elastic sheets, and when there are two or more elastic sheets, they are spaced apart from each other; and the second buffer member further comprises a plurality of limiting strips, the limiting strips are spaced apart along an outer periphery of the elastic sheet for limiting a distance between the battery module and the bottom plate. a housing comprising a bottom plate and a side plate connected to the bottom plate, wherein the bottom plate and the side plate enclose an accommodating space, and the bottom plate is provided with a plurality of recesses opening to the accommodating space; and a buffer assembly comprising at least a first buffer member, which is disposed corresponding to the recess, the bottom plate comprises an inner surface and an outer surface opposite to each other, wherein the recess is located on the inner surface, the first buffer member is filled in the recess, an inner bottom surface of the recess is lower than the inner surface of the bottom plate, the first buffer member is made of an elastic material, the buffer assembly further comprises a second buffer member disposed at a side of the first buffer member away from the bottom plate; the second buffer member comprises an elastic sheet, there are one or more elastic sheets, and when there are two or more elastic sheets, they are spaced apart from each other; and the second buffer member further comprises a plurality of limiting strips, the limiting strips are spaced apart along an outer periphery of the elastic sheet for limiting a distance between the battery module and the bottom plate.
An insulating structure for an appliance comprising: first and second members (110, 112) that are attached to one another to define an insulating cavity therebetween; an insulating material disposed within the insulating cavity; first structural reinforcements (34,114) that are disposed proximate or within the first member; and second structural reinforcements (36,116) that are disposed proximate or within the second member, wherein the first and second structural reinforcements (34,36,114,116) are free of engagement with one another such that the insulating material extends continuously throughout the insulating cavity, wherein the first and second members (110, 112) are an outer wrapper and an inner liner, respectively, that are connected to define a structural cabinet with the insulating cavity defined between the outer wrapper and the inner liner, wherein the first and second structural reinforcements (34,36,114,116) are defined by integral undulations characterized in that the integral undulations are oriented to define a plurality of distinct reinforcing sections within each of the first and second members (110, 112). first and second members (110, 112) that are attached to one another to define an insulating cavity therebetween; an insulating material disposed within the insulating cavity; first structural reinforcements (34,114) that are disposed proximate or within the first member; and second structural reinforcements (36,116) that are disposed proximate or within the second member, wherein the first and second structural reinforcements (34,36,114,116) are free of engagement with one another such that the insulating material extends continuously throughout the insulating cavity, wherein the first and second members (110, 112) are an outer wrapper and an inner liner, respectively, that are connected to define a structural cabinet with the insulating cavity defined between the outer wrapper and the inner liner, wherein the first and second structural reinforcements (34,36,114,116) are defined by integral undulations characterized in that the integral undulations are oriented to define a plurality of distinct reinforcing sections within each of the first and second members (110, 112).
A syringe comprising: a barrel assembly comprising a disposable tubular insert having a distally facing cavity and a reusable outer sleeve, the tubular insert forming a fluid reservoir and having a fluid opening at a distal end thereof, the reusable outer sleeve being detachably received on the tubular insert and having visible scale markings thereon, wherein a proximal portion of the reusable outer sleeve has a proximally facing attachments collar for detachable insertion into and retention by the cavity; a stopper movably received in the tubular insert for sealing a proximal end of the tubular insert and for displacing fluid into or out of the tubular insert through the fluid opening upon movement of the stopper within the tubular insert; and a user-operable plunger coupled to the stopper for causing the stopper to move within the tubular insert and thereby displace fluid into or out of the tubular insert through the fluid opening under the control of the user. a barrel assembly comprising a disposable tubular insert having a distally facing cavity and a reusable outer sleeve, the tubular insert forming a fluid reservoir and having a fluid opening at a distal end thereof, the reusable outer sleeve being detachably received on the tubular insert and having visible scale markings thereon, wherein a proximal portion of the reusable outer sleeve has a proximally facing attachments collar for detachable insertion into and retention by the cavity; a stopper movably received in the tubular insert for sealing a proximal end of the tubular insert and for displacing fluid into or out of the tubular insert through the fluid opening upon movement of the stopper within the tubular insert; and a user-operable plunger coupled to the stopper for causing the stopper to move within the tubular insert and thereby displace fluid into or out of the tubular insert through the fluid opening under the control of the user.
Method for measuring a chemical composition of a sample (6, 26, 36, 46, 56, 82) in powder, particle or granule form and comprising at least two chemical components, whereby the method comprises the steps of: - illuminating an interior of an integrating cavity (1, 2a, 80, 90) by a light source of a wavelength range, the integrating cavity (1, 2a, 80, 90) having a white diffusely reflective interior to render light in the integrating cavity (1, 2a, 80, 90) diffuse; - detecting an optical signal from the integrating cavity (1, 2a, 80, 90) using a sensor, and - indicating the chemical composition of the sample (6, 26, 36, 46, 56, 82) by spectral analysis, characterized in bringing the sample (6, 26, 36, 46, 56, 82) into the integrating cavity (1, 2a, 80, 90) as a stream being conveyed through said integrating cavity, whereby the sample (6, 26, 36, 46, 56, 82) forms an optically thin layer of particles in at least one dimension inside the integrating cavity (1, 2a, 80, 90) and is exposed to the diffuse light of the integrating cavity (1, 2a, 80, 90). - illuminating an interior of an integrating cavity (1, 2a, 80, 90) by a light source of a wavelength range, the integrating cavity (1, 2a, 80, 90) having a white diffusely reflective interior to render light in the integrating cavity (1, 2a, 80, 90) diffuse; - detecting an optical signal from the integrating cavity (1, 2a, 80, 90) using a sensor, and - indicating the chemical composition of the sample (6, 26, 36, 46, 56, 82) by spectral analysis,
A gas engine power generation system, comprising: a gas engine; a generator capable of generating electric power from power of the gas engine; a turbocharger capable of compressing air to be supplied to the gas engine; and an exhaust gas treatment device capable of treating exhaust gas of the gas engine, wherein the turbocharger includes an exhaust turbine disposed in an exhaust gas flow passage extending between the gas engine and the exhaust gas treatment device, and wherein the exhaust gas treatment device comprises an exhaust gas treatment catalyst comprising a perovskite composite oxide containing at least Ag and Dy in an A site and at least Mn in a B site, the perovskite composite oxide having a composition expressed by the general expression Ag α Dy 1-α MnO 3 in which 0.01 ≤α≤0.20. a gas engine; a generator capable of generating electric power from power of the gas engine; a turbocharger capable of compressing air to be supplied to the gas engine; and an exhaust gas treatment device capable of treating exhaust gas of the gas engine, wherein the turbocharger includes an exhaust turbine disposed in an exhaust gas flow passage extending between the gas engine and the exhaust gas treatment device, and wherein the exhaust gas treatment device comprises an exhaust gas treatment catalyst comprising a perovskite composite oxide containing at least Ag and Dy in an A site and at least Mn in a B site, the perovskite composite oxide having a composition expressed by the general expression Ag α Dy 1-α MnO 3 in which 0.01 ≤α≤0.20.
A device for generating a magnetic field for athletic performance monitoring, comprising: a first pair of magnetometers (22a, 22b) and a second pair of magnetometers (24a, 24b) positioned on an athlete, wherein one magnetometer (22a, 24a) of each pair of magnetometers is configured to transmit an external magnetic field and another one magnetometer (22b, 24b) of each pair of magnetometers is configured to receive and monitor the magnetic field; a generator operatively connected to the one magnetometers (22a, 24a) and configured to vary a characteristic of the external magnetic field, wherein the characteristic is varied over time, wherein the another one magnetometers (22b, 24b) of each pair of magnetometers are configured to generate at least one magnetometer signal representing a change in the magnetic field; characterized in that: the generator is configured to randomly or pseudo-randomly vary the frequency of the first pair of magnetometers (22a, 22b) between 8900 and 9100 Hz and to randomly or pseudo-randomly vary the frequency of the second pair of magnetometers (24a, 24b) between 8660 and 8860 Hz. a first pair of magnetometers (22a, 22b) and a second pair of magnetometers (24a, 24b) positioned on an athlete, wherein one magnetometer (22a, 24a) of each pair of magnetometers is configured to transmit an external magnetic field and another one magnetometer (22b, 24b) of each pair of magnetometers is configured to receive and monitor the magnetic field; a generator operatively connected to the one magnetometers (22a, 24a) and configured to vary a characteristic of the external magnetic field, wherein the characteristic is varied over time, wherein the another one magnetometers (22b, 24b) of each pair of magnetometers are configured to generate at least one magnetometer signal representing a change in the magnetic field; characterized in that: the generator is configured to randomly or pseudo-randomly vary the frequency of the first pair of magnetometers (22a, 22b) between 8900 and 9100 Hz and to randomly or pseudo-randomly vary the frequency of the second pair of magnetometers (24a, 24b) between 8660 and 8860 Hz.
An innerliner for a tire formed by laminating a composition containing an elastomer component comprised of a diene-based elastomer onto a resin layer and then irradiating energy beams required for generating partial crosslinking between the resin layer and the elastomer component, wherein the dose of the energy beam is 1-600 kGy and a layer made from the composition containing the elastomer component is co-crosslinked with an adjacent rubber member through vulcanization and wherein the elastomer component comprises a mixture of an elastomer component having a weight average molecular weight converted to polystyrene as measured by using a gel permeation chromatography of 1000-150000 and an elastomer component having a weight average molecular weight converted to polystyrene as measured by using a gel permeation chromatography of 150000-3000000.