mhurhangee/ep-ind-claims huggingface dataset:
A wall module comprising: a moment frame comprising at least first and second parallel oriented, spaced apart hollow columns each having a top end and a bottom end, adjacent ones of which are interconnected at the top end and the bottom end by first and second horizontal beams, respectively to enclose an interior space; wherein a first end of the first horizontal beam and a first end of the second horizontal beam are rigidly connected to a side of the top end and the bottom end, respectively of the first hollow column and a second end of the first horizontal beam and a second end of the second horizontal beam are rigidly connected to the side of the top end and the bottom end, respectively of the second hollow column to form a rectangular wall segment; cellular concrete material, inserted into the moment frame and filling the interior space between the first and second hollow columns and the first and second horizontal beams, that forms into a solid mass; isolation strips (161 - 165) applied to outside surfaces of the columns of the moment frame characterized in that the isolation strips are applied so as to separate the moment frame from the cellular concrete material; and in that the wall module further comprises a plurality of anchor pins (151 - 154), affixed to an interior facing surface of the second horizontal beam, for providing the cellular concrete material with an attachment to the moment frame. a moment frame comprising at least first and second parallel oriented, spaced apart hollow columns each having a top end and a bottom end, adjacent ones of which are interconnected at the top end and the bottom end by first and second horizontal beams, respectively to enclose an interior space; wherein a first end of the first horizontal beam and a first end of the second horizontal beam are rigidly connected to a side of the top end and the bottom end, respectively of the first hollow column and a second end of the first horizontal beam and a second end of the second horizontal beam are rigidly connected to the side of the top end and the bottom end, respectively of the second hollow column to form a rectangular wall segment; cellular concrete material, inserted into the moment frame and filling the interior space between the first and second hollow columns and the first and second horizontal beams, that forms into a solid mass; isolation strips (161 - 165) applied to outside surfaces of the columns of the moment frame characterized in that the isolation strips are applied so as to separate the moment frame from the cellular concrete material; and in that the wall module further comprises a plurality of anchor pins (151 - 154), affixed to an interior facing surface of the second horizontal beam, for providing the cellular concrete material with an attachment to the moment frame.
A steering control device comprising a control circuit configured to control driving of a reaction force motor that generates steering reaction force applied to a steering wheel in which power transmission with turning wheels of a vehicle is separated, characterized in that when a vehicle power source is turned on, the control circuit requests a vehicle control device that controls traveling of the vehicle to stop the traveling of the vehicle when information is exchanged between the control circuit and the vehicle control device in a manner that does not follow a predetermined pattern.
An apparatus (10; 60; 70) for gait training, comprising: a movable base (11; 11A, 11B), said movable base (11; 11A, 11B) comprising a drive unit for moving the movable base (11; 11A, 11 B), an arm arrangement (15, 16, 18; 15A, 16A, 15B, 16B; 18A, 18B) extending from the movable base (11; 11A, 11B), a weight support system (15, 19, 110) to enable a person to be at least partially suspended from above via said arm arrangement (15, 16, 18; 15A, 16A, 15B, 16B; 18A, 18B), a movement detector (14, 115; 20; 21) to detect a movement of the person, and a control unit configured to control said drive unit in response to movement of the person detected by the movement detector (14, 115; 20; 21) such that the movable base (11; 11A, 11B) follows the person in a predetermined distance range and in a predetermined angular range with respect to a movement direction of the person, characterized in that the predetermined angular range is selected such that the movable base moves outside a moving path of the person to enable the person to use training elements including obstacles and stairs. a movable base (11; 11A, 11B), said movable base (11; 11A, 11B) comprising a drive unit for moving the movable base (11; 11A, 11 B), an arm arrangement (15, 16, 18; 15A, 16A, 15B, 16B; 18A, 18B) extending from the movable base (11; 11A, 11B), a weight support system (15, 19, 110) to enable a person to be at least partially suspended from above via said arm arrangement (15, 16, 18; 15A, 16A, 15B, 16B; 18A, 18B), a movement detector (14, 115; 20; 21) to detect a movement of the person, and a control unit configured to control said drive unit in response to movement of the person detected by the movement detector (14, 115; 20; 21) such that the movable base (11; 11A, 11B) follows the person in a predetermined distance range and in a predetermined angular range with respect to a movement direction of the person, characterized in that the predetermined angular range is selected such that the movable base moves outside a moving path of the person to enable the person to use training elements including obstacles and stairs.
A process for producing a phospholipid product from a fish oil comprising the steps of: - providing a fish oil containing lipids and phospholipids; - in a first polar solvent extraction step, mixing the fish oil with a polar solvent, wherein the ratio of polar solvent to fish oil is 5:95 to 25:75; - centrifuging the mixture of the fish oil and the polar solvent to separate a polar fraction from a lipid fraction; - in a second polar solvent extraction step, mixing the polar fraction with the polar solvent and fish oil, which has not been treated in the first polar solvent extraction step to provide a mixture comprising up to 5% polar solvent; 25% to 75% fish oil and polar fraction to balance; - separating the mixture of the polar fraction, the polar solvent and the fish oil into a concentrated polar fraction and a lipid fraction; and - isolating a phospholipid from the concentrated polar fraction. - providing a fish oil containing lipids and phospholipids; - in a first polar solvent extraction step, mixing the fish oil with a polar solvent, wherein the ratio of polar solvent to fish oil is 5:95 to 25:75; - centrifuging the mixture of the fish oil and the polar solvent to separate a polar fraction from a lipid fraction; - in a second polar solvent extraction step, mixing the polar fraction with the polar solvent and fish oil, which has not been treated in the first polar solvent extraction step to provide a mixture comprising up to 5% polar solvent; 25% to 75% fish oil and polar fraction to balance; - separating the mixture of the polar fraction, the polar solvent and the fish oil into a concentrated polar fraction and a lipid fraction; and - isolating a phospholipid from the concentrated polar fraction.
A plastic article, comprising: a first plastic substrate, the first plastic substrate being transparent; and a second plastic substrate formed on the first plastic substrate, the second plastic substrate being transparent; wherein the refractive index of the first plastic substrate is different than the refractive index of the second plastic substrate, the first plastic substrate comprises a first surface abutting the second plastic substrate, the first surface has a first pattern, the first pattern comprises a plurality of first convex portions. a first plastic substrate, the first plastic substrate being transparent; and a second plastic substrate formed on the first plastic substrate, the second plastic substrate being transparent; wherein the refractive index of the first plastic substrate is different than the refractive index of the second plastic substrate, the first plastic substrate comprises a first surface abutting the second plastic substrate, the first surface has a first pattern, the first pattern comprises a plurality of first convex portions.
A method of decoding a bitstream of data in a video decoder to reconstruct non-zero coefficients of a block in a video, the method comprising: determining that the block was encoded with transform skipped and, based on that determination, decoding a same-sign flag, wherein the same-sign flag indicates whether the non-zero coefficients in the block all have a common sign; if the non-zero coefficients all have the common sign, then reconstructing a syntax element that indicates whether the common sign is positive or negative, and reconstructing the signed values of the non-zero coefficients based on the syntax element; and otherwise, then reconstructing sign bits for the respective non-zero coefficients of the block, wherein each sign bit indicates whether its respective non-zero coefficient is positive or negative; and reconstructing the signed value of each non-zero coefficient based on its respective sign bit. decoding a same-sign flag, wherein the same-sign flag indicates whether the non-zero coefficients in the block all have a common sign; if the non-zero coefficients all have the common sign, then reconstructing a syntax element that indicates whether the common sign is positive or negative, and reconstructing the signed values of the non-zero coefficients based on the syntax element; and reconstructing a syntax element that indicates whether the common sign is positive or negative, and reconstructing the signed values of the non-zero coefficients based on the syntax element; and otherwise, then reconstructing sign bits for the respective non-zero coefficients of the block, wherein each sign bit indicates whether its respective non-zero coefficient is positive or negative; and reconstructing the signed value of each non-zero coefficient based on its respective sign bit. reconstructing sign bits for the respective non-zero coefficients of the block, wherein each sign bit indicates whether its respective non-zero coefficient is positive or negative; and reconstructing the signed value of each non-zero coefficient based on its respective sign bit.
A method of laser-induced marking of a article comprising the steps of: providing an article (10; 500; 500A; 500B), the article having a marking surface (11; 501; 501A; 501B) intended for being marked, in particular where the marking surface (11; 501; 501A; 501B) is a non-flat surface; providing a first laser transfer foil (30; 210; 210A; 210B); providing a first laser unit (50; 100; 100A; 100B) for emitting first laser light (59; 110); providing a first hard adaptor (20; 400; 400A; 400B) being essentially transparent to the first laser light, the first hard adaptor having a contacting surface (21; 401; 401 A; 401B) that essentially is a negative of at least a part of the marking surface (11; 501; 501A; 501B) of the article; contacting the first laser transfer foil (30; 210; 210A; 210B) with the marking surface (11; 501; 501A; 501B) of the article by means of the first hard adaptor (20; 400; 400A; 400B) such that the first laser transfer foil (30; 210; 210A; 210B) is arranged between the marking surface (11; 501; 501A; 501B) of the article and the contacting surface (21; 401; 401A; 401B) of the first hard adaptor; and irradiating the first laser light (59; 110) through the first hard adaptor (20; 400; 400A; 400B) onto the first laser transfer foil (30; 210; 210A; 210B); characterized in that the method further comprising the step of providing a soft material layer being essentially transparent to the laser light (59; 110) between the first hard adaptor (20; 400; 400A; 400B) and the first laser transfer foil (30; 210; 210A; 210B). providing an article (10; 500; 500A; 500B), the article having a marking surface (11; 501; 501A; 501B) intended for being marked, in particular where the marking surface (11; 501; 501A; 501B) is a non-flat surface; providing a first laser transfer foil (30; 210; 210A; 210B); providing a first laser unit (50; 100; 100A; 100B) for emitting first laser light (59; 110); providing a first hard adaptor (20; 400; 400A; 400B) being essentially transparent to the first laser light, the first hard adaptor having a contacting surface (21; 401; 401 A; 401B) that essentially is a negative of at least a part of the marking surface (11; 501; 501A; 501B) of the article; contacting the first laser transfer foil (30; 210; 210A; 210B) with the marking surface (11; 501; 501A; 501B) of the article by means of the first hard adaptor (20; 400; 400A; 400B) such that the first laser transfer foil (30; 210; 210A; 210B) is arranged between the marking surface (11; 501; 501A; 501B) of the article and the contacting surface (21; 401; 401A; 401B) of the first hard adaptor; and irradiating the first laser light (59; 110) through the first hard adaptor (20; 400; 400A; 400B) onto the first laser transfer foil (30; 210; 210A; 210B); characterized in that the method further comprising the step of providing a soft material layer being essentially transparent to the laser light (59; 110) between the first hard adaptor (20; 400; 400A; 400B) and the first laser transfer foil (30; 210; 210A; 210B).
An electrochemical secondary cell comprising a cathode and anode comprising either Li 4 Ti 5 O 12 or a carbonaceous material capable of inserting lithium, a ceramic coated polyethylene terephthalate separator, a non-aqueous solvent and a lithium salt, the active material of said cathode is a lithiated metal oxide of the formula LiNi 1-x-y Co x Al/Mn y O 2 wherein: Al/Mn stands for Al and/or Mn 0.15 < x < 0.33; 0.05 < y < 0.33; the sum x + y being less than 0.66; the lithium salt being selected from the group consisting of LiPF 6, LiBF 4, lithium bisoxalatoborate (LiBOB), lithium bisperfluoroethylsulfonylimide (LiBETI) and a mixture thereof. Al/Mn stands for Al and/or Mn 0.15 < x < 0.33; 0.05 < y < 0.33; the sum x + y being less than 0.66; the lithium salt being selected from the group consisting of LiPF 6, LiBF 4, lithium bisoxalatoborate (LiBOB), lithium bisperfluoroethylsulfonylimide (LiBETI) and a mixture thereof.
A battery for supplying current to a device, comprising: a plurality of battery cores; and a battery management system, BMS electrically connected to each of the plurality of battery cores and characterised by being configured to: receive a controlling signal from a control unit of the device, wherein the controlling signal is based on one or more electrical characteristics of each of the plurality of battery cores, wherein the one or more electrical characteristics of each of the plurality of battery cores are obtained by the control unit; and control at least one of the plurality of battery cores to supply current to the device based on the controlling signal. a plurality of battery cores; and a battery management system, BMS electrically connected to each of the plurality of battery cores and characterised by being configured to: receive a controlling signal from a control unit of the device, wherein the controlling signal is based on one or more electrical characteristics of each of the plurality of battery cores, wherein the one or more electrical characteristics of each of the plurality of battery cores are obtained by the control unit; and control at least one of the plurality of battery cores to supply current to the device based on the controlling signal. receive a controlling signal from a control unit of the device, wherein the controlling signal is based on one or more electrical characteristics of each of the plurality of battery cores, wherein the one or more electrical characteristics of each of the plurality of battery cores are obtained by the control unit; and control at least one of the plurality of battery cores to supply current to the device based on the controlling signal.
Method for analyzing surface measurements, in particular scratch tests, wear tests or profilometric measurements, wherein an automatic table system is used for the position and measurement section of the area to be analyzed, wherein the table coordinates of the table system serve as a reference and that a graphic with displayable curves in the form of measurement curves of already analyzed results with an X-axis as a coordinate axis along the measurement section is superimposed on a live image of the measurement section in such a manner that the X-coordinates in the image correspond to the X-coordinates of the curves, wherein the X-coordinates of the image and the X-coordinates of the curves can be taken from the table coordinates with respect to the travel path of the table and - the image of the specimen surface is taken by a camera, wherein the image scale is calibrated, - always only the part of the measurement section and the measurement curves are displayed which corresponds to the image width of the image of the recording camera displayed on the screen, - all measurements along the X-axis are made approximately parallel to the underside of the image, - the specimen is moved under the camera with the automatic table system in both directions and the table coordinates are determined in the process, - that the measurement curves occupy all or part of the width of the image and are automatically adapted to the image, when the section of the specimen represented in the image changes, and that the combination of the image of the specimen surface with the graphic of the measurement curves is stored as a new image, - the image of the camera is stored together with information containing at least details of the table coordinates at the recording location, the distance from the camera to a test probe, the calibrated image width and height and the number of pixels in width and height. - the image of the specimen surface is taken by a camera, wherein the image scale is calibrated, - always only the part of the measurement section and the measurement curves are displayed which corresponds to the image width of the image of the recording camera displayed on the screen, - all measurements along the X-axis are made approximately parallel to the underside of the image, - the specimen is moved under the camera with the automatic table system in both directions and the table coordinates are determined in the process, - that the measurement curves occupy all or part of the width of the image and are automatically adapted to the image, when the section of the specimen represented in the image changes, and that the combination of the image of the specimen surface with the graphic of the measurement curves is stored as a new image, - the image of the camera is stored together with information containing at least details of the table coordinates at the recording location, the distance from the camera to a test probe, the calibrated image width and height and the number of pixels in width and height.
A commutating switch, comprising: a stationary portion with a stationary electrode (105, 107, 109, 142, 162, 166, 222, 223, 224, 225, 366, 368, 370, 372); a movable portion (101, 155, 280) with a movable electrode (111, 131, 154, 156, 221, 231,241,251,261,271,410,411,412); wherein a switch closed position is defined when the stationary and movable electrodes are in conductive contact; wherein the movable portion can be moved relative to the stationary portion to break the conductive contact between the stationary and movable electrodes so as to define a switch open position; and one or more non-linear, non-ohmic blocking semiconductors (110, 130, 160, 292, 294, 296, 420, 421) in an electrical path into which current is commutated as the switch is opened. a stationary portion with a stationary electrode (105, 107, 109, 142, 162, 166, 222, 223, 224, 225, 366, 368, 370, 372); a movable portion (101, 155, 280) with a movable electrode (111, 131, 154, 156, 221, 231,241,251,261,271,410,411,412); wherein a switch closed position is defined when the stationary and movable electrodes are in conductive contact; wherein the movable portion can be moved relative to the stationary portion to break the conductive contact between the stationary and movable electrodes so as to define a switch open position; and one or more non-linear, non-ohmic blocking semiconductors (110, 130, 160, 292, 294, 296, 420, 421) in an electrical path into which current is commutated as the switch is opened.
Method for locating a device emitting an electromagnetic signal by means of at least three receiving units (2, 3, 4), having the following steps: - receiving the emitted signal at the receiving units (2, 3, 4); - calculating the location of the device from at least two time differences (Δ 2, Δ 3) of the reception of the emitted signal at the receiving units (2, 3, 4); - detecting a signal section (12, 17, 21) of the received signal at each receiving unit (2, 3, 4); - transmitting each signal section (12, 17, 21) to a time difference detection device; characterized by - determining the time differences (Δ 2, Δ 3) by means in each case of a maximum of a cross correlation function of two signal sections (12, 17; 12, 21) in the time difference detection device, and in that one receiving unit (2, 3; 2, 4) has at least a part of the time difference detection device, the detected signal section of said receiving unit (2, 3, 4), and the detected signal section of at least one further receiving unit (3, 4) being sent to said part of the time difference detection device, and a first time difference (Δ 2; Δ 3) of the at least two time differences (Δ 2, Δ 3) being determined from the cross correlation function of said signal sections (12, 17; 12, 21) in the at least one part of the time difference detection device, and in that the part is a first component of the time difference detection device, and one other receiving unit of the receiving units (2, 3, 4) has a second component of the time difference detection device, in the first component a first time difference (Δ 2) being determined between the signal section of the receiving unit having the first component and a receiving unit without component of the time difference detection device, and in the second component a second time difference (Δ 3) being determined between the signal section of the receiving unit having the second component and a receiving unit without component of the time difference detection device by means of a cross correlation function of the signal sections (12, 21). - receiving the emitted signal at the receiving units (2, 3, 4); - calculating the location of the device from at least two time differences (Δ 2, Δ 3) of the reception of the emitted signal at the receiving units (2, 3, 4); - detecting a signal section (12, 17, 21) of the received signal at each receiving unit (2, 3, 4); - transmitting each signal section (12, 17, 21) to a time difference detection device; characterized by - determining the time differences (Δ 2, Δ 3) by means in each case of a maximum of a cross correlation function of two signal sections (12, 17; 12, 21) in the time difference detection device, and