mhurhangee/ep-ind-claims huggingface dataset:
A device comprising a housing for a gel sealing device and a gel sealing device for sealing a passage of elongate parts (13, 14) through an opening wherein the housing comprises a lower housing body and an upper housing forming a cable organizing area and being releasably connected to the lower housing body wherein the lower housing body accommodates a round shaped gel sealing block of the gel sealing device providing a sealing section through which the elongate parts (13, 14) extend between a gel inner ring and a gel outer ring (6, 10a), covering the gel inner ring in radial direction, the gel inner ring and the gel outer ring (6, 10a) being made of a gel sealing material, wherein the sealing section is formable there between and wherein the gel outer ring is comprised of at least a first and a second circumferential segment (6; 10a) wherein the lower housing body provides an inner circumferential surface supporting the sealing block; wherein the lower housing body surrounds an upper flange and a lower flange with a support section (11a, 12a, 12b) disposed there between which upper and lower flanges (11, 12) are movable towards each other in direction of extension of the elongate parts (13, 14) to compress the gel inner ring supported by said support section (11a, 12a, 12b) and the gel outer ring (6, 10a); wherein the lower housing body further accommodates an upper first ring segment and a lower first ring segment sandwiching in the direction of extension of the elongate parts the second circumferential segment; wherein the upper first ring segment and the lower first ring segment have a rim covering in radial direction, at least, a part of an outer circumferential surface of the second circumferential segment and wherein the upper and lower first ring segments (10b, 10c) are releasably secured to the upper and lower flanges (11, 12), respectively.
A sensor device for transmitting, to an external device installed external to the sensor device, sensing data generated from monitoring a target, the sensor device comprising: a sensor unit configured to generate sensing data including background noise data, the background noise data representing noise from a cause other than the target; an extraction unit configured to extract the background noise data from the sensing data by sorting the items of sensing data generated at a plurality of times based on values indicated by the items of sensing data or by referring to a frequency distribution of sensing data; and a transmission unit configured to transmit the background noise data extracted by the extraction unit to the external device. a sensor unit configured to generate sensing data including background noise data, the background noise data representing noise from a cause other than the target; an extraction unit configured to extract the background noise data from the sensing data by sorting the items of sensing data generated at a plurality of times based on values indicated by the items of sensing data or by referring to a frequency distribution of sensing data; and a transmission unit configured to transmit the background noise data extracted by the extraction unit to the external device.
A roof system comprising: i. a roof substrate; ii. a first membrane including first and second opposed planar surfaces, where the first planar surface includes a roof-substrate contacting portion and a lap portion, said first membrane having disposed on said roof-substrate contacting portion and said lap portion a UV-cured adhesive, where said first membrane is adhered to said roof substrate through said adhesive disposed on said roof-substrate contacting portion where the UV-cured adhesive disposed on said first membrane has a substantially consistent degree of cure; and iii. a second membrane including opposed first and second planar surfaces, where the first planar surface includes a roof-substrate contacting portion and a lap portion, said second membrane having disposed on said roof-substrate contacting portion and said lap portion a UV-cured adhesive, where said second membrane is adhered to said roof substrate through said adhesive disposed on said roof-substrate contacting portion, and where said second membrane is adhered to said first membrane through said adhesive disposed on said lap portion of said second membrane where the UV-cured adhesive disposed on said second membrane has a substantially consistent degree of cure. i. a roof substrate; ii. a first membrane including first and second opposed planar surfaces, where the first planar surface includes a roof-substrate contacting portion and a lap portion, said first membrane having disposed on said roof-substrate contacting portion and said lap portion a UV-cured adhesive, where said first membrane is adhered to said roof substrate through said adhesive disposed on said roof-substrate contacting portion where the UV-cured adhesive disposed on said first membrane has a substantially consistent degree of cure; and iii. a second membrane including opposed first and second planar surfaces, where the first planar surface includes a roof-substrate contacting portion and a lap portion, said second membrane having disposed on said roof-substrate contacting portion and said lap portion a UV-cured adhesive, where said second membrane is adhered to said roof substrate through said adhesive disposed on said roof-substrate contacting portion, and where said second membrane is adhered to said first membrane through said adhesive disposed on said lap portion of said second membrane where the UV-cured adhesive disposed on said second membrane has a substantially consistent degree of cure.
Method for the computer-controlled optical capturing of a fingerprint or an object on a surface of a cover plate of a screen with a plurality of photosensors which are assigned in each case to a display pixel, wherein the display pixels emit light radiation and the photosensors capture light radiation from the display pixels reflected by the surface within a scan angle, wherein the size of the capturing range of the photosensor that is determined by the scan angle corresponds to the size of the display pixel in the virtual mirror plane and the scan angle α must not exceed the size α = 2arctan (d/4h 1), with the edge length d of the display pixel and the distance h 1 from the upper side of the display pixel to the surface of the cover plate, and wherein a switching device that is coupled to the computer either a fingerprint recognition mode, in which all display pixels emit light radiation and the photosensors of which that are assigned thereto capture reflected light radiation, or a scan mode, in which the display pixels are switched on and off sequentially in the pattern of a chessboard or in the form of lines and columns so as to emit light radiation, and switches on the photosensors of the respectively switched-off display pixels to receive the reflected light radiation.
A method for in situ operating an internal combustion engine comprising: turbo charging said internal combustion engine; providing a signal from an accelerometer representative of pressure in a combustion chamber of the internal combustion engine; determining based on the signal at least one combustion characteristic for said combustion chamber, comprising an actual heat release signal for said combustion chamber; and inputting said actual heat release signal into a diagnostic logic tree for diagnosing changes in combustion characteristics due to a change in fuel quality; and performing a mitigation technique to compensate for said changes in combustion characteristics; characterized in that, in response to said changes in combustion characteristics being due to said change in fuel quality, said mitigation technique comprises: determining a desired intake manifold pressure as a function of engine operating conditions; comparing a first difference between an actual intake manifold pressure with said desired intake manifold pressure with a first predetermined tolerance; and determining a fuelling correction as a function of said first difference when said first difference is outside a range of said first predetermined tolerance. turbo charging said internal combustion engine; providing a signal from an accelerometer representative of pressure in a combustion chamber of the internal combustion engine; determining based on the signal at least one combustion characteristic for said combustion chamber, comprising an actual heat release signal for said combustion chamber; and inputting said actual heat release signal into a diagnostic logic tree for diagnosing changes in combustion characteristics due to a change in fuel quality; and performing a mitigation technique to compensate for said changes in combustion characteristics; characterized in that, in response to said changes in combustion characteristics being due to said change in fuel quality, said mitigation technique comprises: determining a desired intake manifold pressure as a function of engine operating conditions; comparing a first difference between an actual intake manifold pressure with said desired intake manifold pressure with a first predetermined tolerance; and determining a fuelling correction as a function of said first difference when said first difference is outside a range of said first predetermined tolerance. determining a desired intake manifold pressure as a function of engine operating conditions; comparing a first difference between an actual intake manifold pressure with said desired intake manifold pressure with a first predetermined tolerance; and determining a fuelling correction as a function of said first difference when said first difference is outside a range of said first predetermined tolerance.
A method for producing flexible polyurethane foams by reaction of component A comprising A1 100 parts by weight polyether polyol, A2 0.5 to 25 parts by weight (based on 100 parts by weight of component A1) water and/or physical blowing agents, A3 0.05 to 10 parts by weight (based on 100 parts by weight of component A1) auxiliary substances and additives such as a) catalysts, b) surface-active additives, c) pigments or flame retardants, with NCO-terminated, urethane group-comprising prepolymer (component B) comprising one or more polyisocyanates and one or more polyether carbonate polyols, the production taking place at an index of 50 to 250. A1 100 parts by weight polyether polyol, A2 0.5 to 25 parts by weight (based on 100 parts by weight of component A1) water and/or physical blowing agents, A3 0.05 to 10 parts by weight (based on 100 parts by weight of component A1) auxiliary substances and additives such as a) catalysts, b) surface-active additives, c) pigments or flame retardants, a) catalysts, b) surface-active additives, c) pigments or flame retardants,
An apparatus for processing a melt including: a container unit having an inner space to receive a melt; an injection unit mounted on a lower portion of the container unit to inject gas into the melt in the container unit; a storage unit mounted on the container unit and filled with gas; a supply unit installed in the container unit to connect the injection unit and the storage unit and having a pressure regulator for regulating a supply pressure of the gas and a flow regulator for regulating a supply flow rate of the gas under the adjusted supply pressure; and a weight adjustment unit mounted on an outer surface of the container unit at a position opposite to the storage unit in a horizontal direction with the container unit interposed therebetween, wherein the weight adjustment unit is installed to be at least partially movable in a horizontal direction along an outer surface of the container unit to adjust the center of gravity, the weight adjustment unit includes: a holding bar; a weight; an actuator controlled by a control unit and configured to move the holding bar depending on an amount of gas filled in the storage unit; a guide rail; and wherein the position of the weight is adjusted in a front-rear direction depending on the movement of the holding bar. a container unit having an inner space to receive a melt; an injection unit mounted on a lower portion of the container unit to inject gas into the melt in the container unit; a storage unit mounted on the container unit and filled with gas; a supply unit installed in the container unit to connect the injection unit and the storage unit and having a pressure regulator for regulating a supply pressure of the gas and a flow regulator for regulating a supply flow rate of the gas under the adjusted supply pressure; and a weight adjustment unit mounted on an outer surface of the container unit at a position opposite to the storage unit in a horizontal direction with the container unit interposed therebetween, wherein the weight adjustment unit is installed to be at least partially movable in a horizontal direction along an outer surface of the container unit to adjust the center of gravity, the weight adjustment unit includes: a holding bar; a weight; an actuator controlled by a control unit and configured to move the holding bar depending on an amount of gas filled in the storage unit; a guide rail; and wherein the position of the weight is adjusted in a front-rear direction depending on the movement of the holding bar. a holding bar; a weight; an actuator controlled by a control unit and configured to move the holding bar depending on an amount of gas filled in the storage unit; a guide rail; and wherein the position of the weight is adjusted in a front-rear direction depending on the movement of the holding bar.
A compound or a pharmaceutically acceptable salt thereof, for use in treating or inhibiting the progression of cancer, wherein, the compound is selected from compound A-1 to A-51 in Table 1, B-1 to B-3, B5 to B22, B24 to B58, B60 to B-293 in Table 2, or C-1 to C-9 in in Table 3.
A control device for an internal combustion engine, that controls an internal combustion engine provided with fuel injection valves for directly injecting fuel respectively into a plurality of cylinders, the control device comprising a fuel temperature estimating unit that acquires respective temperatures of fuel injected into the cylinders respectively, wherein at least one of a fuel injection valve control amount, ignition control amount, and intake and exhaust valve control amount of each of the cylinders is set in accordance with the respective temperatures of fuel estimated by the fuel temperature estimating unit; the control device further comprising: a valve-closing time detecting unit that detects a valve-closing time of a valve body of each of the fuel injection valves; and the fuel temperature estimating unit estimates the respective temperatures of fuel on the basis of the valve-closing duration of the valves detected by the valve-closing time detecting unit.
An anchor configured to connect two casing elements that are arranged at a distance from each other and opposite to each other, the anchor comprising: an anchor rod that includes a thread on which an enveloping tube is arrangeable, characterized in that the anchor rod includes an anchor head that is rotationally and axially fixed at the anchor rod and a first reaction bearing for the enveloping tube at a fixed distance from the anchor head. an anchor rod that includes a thread on which an enveloping tube is arrangeable, characterized in that the anchor rod includes an anchor head that is rotationally and axially fixed at the anchor rod and a first reaction bearing for the enveloping tube at a fixed distance from the anchor head.
Connecting device for a medical infusion system, having a connection piece which has a connecting profile for the connection of a functional part of the infusion system, and having a resiliently flexible, cup-like valve body which is arranged in the connection piece and has a valve casing and a cap-shaped top region which is provided with a slit arrangement, and having a dimensionally stable base portion on which a base ring of the valve casing is supported and which is firmly connected to the connection piece, characterized in that the valve casing, in the unloaded initial state, has a dished internal contour which, starting from the cap-shaped top region, first of all expands in the direction of the base ring and subsequently narrows again, forming an O-like internal longitudinal section, wherein the valve casing has a first wall portion that adjoins the top region, widens in a frustoconical manner and has a constant thickness, which first wall portion is adjoined, in the direction of the base ring, by a central wall portion, the inner wall of which extends cylindrically and coaxially with the longitudinal centre axis L, and the outer wall of which extends in a manner bulging further outwards in the direction of the base ring, and wherein the central wall portion is adjoined by a base-side wall portion, which comprises the base ring, and in which the inner wall tapers conically downwards from the central wall portion to the base portion.
A sensor device comprising: a passive matrix array of electroactive polymer sensor elements arranged in rows and columns; and an array of row lines and an array of column lines, with a sensor element at each intersection, wherein each sensor element generates a sensor signal when an external input is sensed, wherein each sensor element generates a binary sensor signal such that a total sensor array signal at each row and at each column enables any pattern of external inputs to be determined. a passive matrix array of electroactive polymer sensor elements arranged in rows and columns; and an array of row lines and an array of column lines, with a sensor element at each intersection, wherein each sensor element generates a sensor signal when an external input is sensed, wherein each sensor element generates a binary sensor signal such that a total sensor array signal at each row and at each column enables any pattern of external inputs to be determined.
A locking and charging system for electric powered vehicles, including: management electronic means (15, 15a) that are inserted into a security casing that is mounted onto an electric powered vehicle whereby the management electronic means (15, 15a) include different sensors and communicators that determine the position and forces influencing the management electronic means and that allow communication with at least a remote device and whereby the management electronic means (15, 15a) are connected to the vehicle's drive train and/or battery; a locking and charging cable with one end connected to the management electronic means (15, 15a) and with a locking head with an active male part of the electronic locking mechanism with electricity contacts provided on the other end, whereby the locking head with the active male part is inserted into the passive female counterpart of the locking mechanism which is inside the security casing or in the charging station or in a defined place on the vehicle; a charging station, with a specific or universal charger for the electric powered vehicle and a passive female counterpart of the electronic locking mechanism into which the active male part of the electronic locking mechanism fits; whereby the management electronic means (15, 15a) further include electronic means which include an embedded logic and several sensors, at least sensors to determine the position of the vehicle, sensors to identify potential threatening forces influencing the vehicle, and means to communicate data wirelessly with/to a remote device, server or similar; the security casing being attached onto an electric powered vehicle with a vehicle attaching plate with at least one attachment point, characterized in a motor, which is positioned inside the security casing, locks the security casing to the vehicle attaching plate by a locking part or by blocking the attachment point on the attaching plate and whereby the attaching plate is connected to the vehicle drive train and/or battery with cables and the attaching plate has connectors to which the management electronic means are connected via the security casing when fixed on the attaching plate.
A compound for use in treating cancer, wherein the compound is of the formula wherein R is selected from the group consisting of X is CH or N; R 1 is hydrogen or fluoro; and R 2 is C 1 to C 3 alkyl; or a pharmaceutically acceptable salt thereof. R is selected from the group consisting of X is CH or N; R 1 is hydrogen or fluoro; and R 2 is C 1 to C 3 alkyl; or a pharmaceutically acceptable salt thereof.
A method of analyzing oxygen in steel which comprises heating a steel sample loaded in a graphite crucible to fuse in an inert gas and measuring the oxygen concentration in the sample from the degree of infrared absorption of one or both of generated carbon monoxide and carbon dioxide, characterized in that the sample is a piece obtained by machining a steel block taken from molten steel so that its height is at least 1.5 mm and at most 7 mm and the ratio (S/V) of its surface area S to its volume V is at least 1.05 mm -1 and at most 1.30 mm -1, that vacuum arc plasma treatment is carried out as pretreatment for removing an oxide film from the surface of a sample and cleaning the surface under conditions of a vacuum at the start of arc plasma discharge of at least 5 Pa and at most 35 Pa and an arc plasma output current of at least 15 A and at most 55 A with a total number of times that vacuum arc plasma discharge is performed being at most 4 times and a total treatment time being at least 0.2 seconds and at most 1.2 seconds, and that the sample is then directly loaded, without contacting the atmosphere, into the graphite crucible which is waiting after cleaning has been performed thereon by heating at a temperature higher than the analysis temperature followed by lowering the temperature to the analysis temperature, whereby after receipt of the steel block, the time taken for sample processing pre-treatment for the purpose of cleaning and determination of the oxygen concentration is at most 5 minutes.