mhurhangee/ep-ind-claims huggingface dataset:
Operating table system with an operating table with operating table elements and at least one accessory part connectable to the operating table, wherein the operating table has a storage device and a control device connected thereto, wherein the storage device is designed for the storage of geometric data of the operating table elements, the operating table surroundings and the at least one connectable accessory part, through which in the storage device a virtual, collision-free space for movement of the operating table elements and the at least one connectable accessory part is stored, and whereby the control unit only allows movement of the table elements and the at least one accessory component within the virtual, collision free space for movement, characterised in that the relevant accessory part has a radio-identification element in which an identification data element is stored which relates to the accessory part, and that the operating table has a radio reading device which is suitable for reading the identification data element from the radio-identification element of the relevant accessory part, wherein the radio-reading device is connected to the storage and control device and in dependence on the read identification data element of the relevant connected accessory part, the virtual, collision-free space for movement is newly determined and stored by the storage and control device.
A electronic vaping device, comprising: a cartomizer including a housing, a liquid supply reservoir in the housing, a vaporizer connected to the liquid supply reservoir, and a channel adjacent to the liquid supply reservoir, the liquid supply reservoir being configured to store vapor precursor, and the vaporizer including a wick (28, 140) extending from the channel into the liquid supply reservoir, the wick (28, 140) configured to transport the vapor precursor from the liquid supply reservoir to the channel; and a battery section configured to provide power to the vaporizer, the battery section including a control circuit that is configured to determine a saturation level of the vapor precursor on the wick (28, 140) based on an electrical resistance of the wick (28, 140) measured by the control circuit, wherein the control circuit is configured to measure the resistance of the wick (28, 140) at different times and includes a memory unit configured to store a plurality of electrical resistance values measured by the control circuit and corresponding to the electrical resistance of the wick (28, 140) measured at different times, and wherein the control circuit is configured to issue an alert based on a comparison result of at least two of the electrical resistance values measured from the wick (28, 140) at different times. a cartomizer including a housing, a liquid supply reservoir in the housing, a vaporizer connected to the liquid supply reservoir, and a channel adjacent to the liquid supply reservoir, the liquid supply reservoir being configured to store vapor precursor, and the vaporizer including a wick (28, 140) extending from the channel into the liquid supply reservoir, the wick (28, 140) configured to transport the vapor precursor from the liquid supply reservoir to the channel; and a battery section configured to provide power to the vaporizer, the battery section including a control circuit that is configured to determine a saturation level of the vapor precursor on the wick (28, 140) based on an electrical resistance of the wick (28, 140) measured by the control circuit, wherein the control circuit is configured to measure the resistance of the wick (28, 140) at different times and includes a memory unit configured to store a plurality of electrical resistance values measured by the control circuit and corresponding to the electrical resistance of the wick (28, 140) measured at different times, and wherein the control circuit is configured to issue an alert based on a comparison result of at least two of the electrical resistance values measured from the wick (28, 140) at different times.
High strength, hot rolled abrasive wear resistant steel strip, wherein the strip has a thickness in the range of 3 - 20 mm and has a microstructure comprising martensite, auto-tempered martensite with iron carbides and NbC, Nb(C, N) and NbV(C, N) particles and trace amounts of retained austenite in martensite-austenite islands, with low carbon equivalent values CEV, CET and Pcm, and wherein the steel contains in weight percentages: - C: 0.13 - 0.29 - Si: 0.01 - 0.05 - Mn: 0.6 - 0.9 - Cr: 0.05 - 0.8 - Mo: 0.05 - 0.4 - Ni: at most 0.1 - Cu: at most 0.1 - Al: 0.01 - 0.08 - Ti: at most 0.02 - B: at most 0.004 - Nb: 0.005 - 0.035 - V: 0.03 - 0.15 - P: at most 0.020 - S: at most 0.010 - N: at most 0.006 - H: at most 0.0004 - Ca additions for sulphide shape control: 0.0005 - 0.005 - wherein the total content of Nb + V is in a range of 0.035 - 0.16 - other elements in amounts of impurity level, balance iron, and wherein CEV is at most 0.46, CET at most 0.34 and Pcm at most 0.32, and wherein the strip has a Brinell hardness of at least 400 HBW and a tensile strength of at least 1316 MPa, CEV, CET and Pcm being defined as follows: CEV = C+Mn/6+Cr/5+Mo/5+V/5+Cu/15+Ni/15; CET = C+Mn/10+Mo/10+Cr/20+Cu/20+Ni/40; Pcm = C+Si/30+Mn/20+Cu/20+Cr/20+Mo/15+V/10+Ni/60+5B. - C: 0.13 - 0.29 - Si: 0.01 - 0.05 - Mn: 0.6 - 0.9 - Cr: 0.05 - 0.8 - Mo: 0.05 - 0.4 - Ni: at most 0.1 - Cu: at most 0.1 - Al: 0.01 - 0.08 - Ti: at most 0.02 - B: at most 0.004 - Nb: 0.005 - 0.035 - V: 0.03 - 0.15 - P: at most 0.020 - S: at most 0.010 - N: at most 0.006 - H: at most 0.0004 - Ca additions for sulphide shape control: 0.0005 - 0.005 - wherein the total content of Nb + V is in a range of 0.035 - 0.16 - other elements in amounts of impurity level, balance iron, and wherein CEV is at most 0.46, CET at most 0.34 and Pcm at most 0.32, and wherein the strip has a Brinell hardness of at least 400 HBW and a tensile strength of at least 1316 MPa, CEV, CET and Pcm being defined as follows: CEV = C+Mn/6+Cr/5+Mo/5+V/5+Cu/15+Ni/15; CET = C+Mn/10+Mo/10+Cr/20+Cu/20+Ni/40; Pcm = C+Si/30+Mn/20+Cu/20+Cr/20+Mo/15+V/10+Ni/60+5B. CEV = C+Mn/6+Cr/5+Mo/5+V/5+Cu/15+Ni/15; CET = C+Mn/10+Mo/10+Cr/20+Cu/20+Ni/40; Pcm = C+Si/30+Mn/20+Cu/20+Cr/20+Mo/15+V/10+Ni/60+5B.
A method for producing a chemical product including the steps of: cultivating microorganisms or culture cells in a fermentation tank; transferring a culture liquid from the fermentation tank to a membrane separation tank (2, 2') so as to filter the culture liquid through a separation membrane (3, 3'); and collecting a fermentation product from a filtration liquid as the chemical product while refluxing an unfiltered culture liquid that has not been filtered so as to be joined to the culture liquid on an upstream side of the membrane separation tank (2, 2'), characterized in that one portion of the culture liquid to be transferred from the fermentation tank is allowed to bypass the membrane separation tank (2, 2') depending on a pressure at the culture liquid flow-in side of the membrane separation tank (2, 2').
A spinning forming device comprising: a receiving jig for supporting a central portion of a plate to be formed, the plate having an opening at a middle thereof; a rotating shaft to which the receiving jig is attached; a heater configured to heat a transform target portion of the plate by induction heating; and a processing tool configured to press the transform target portion to transform the plate, wherein the receiving jig is configured to suppress heat transfer from the plate to the rotating shaft; and wherein the receiving jig includes a main body which has a disk shape and on which an edge portion of the plate surrounding the opening is to be placed, and a tubular portion which projects from the main body in an axial direction of the rotating shaft and is to be fitted in the opening. a receiving jig for supporting a central portion of a plate to be formed, the plate having an opening at a middle thereof; a rotating shaft to which the receiving jig is attached; a heater configured to heat a transform target portion of the plate by induction heating; and a processing tool configured to press the transform target portion to transform the plate, wherein the receiving jig is configured to suppress heat transfer from the plate to the rotating shaft; and wherein the receiving jig includes a main body which has a disk shape and on which an edge portion of the plate surrounding the opening is to be placed, and a tubular portion which projects from the main body in an axial direction of the rotating shaft and is to be fitted in the opening. a main body which has a disk shape and on which an edge portion of the plate surrounding the opening is to be placed, and a tubular portion which projects from the main body in an axial direction of the rotating shaft and is to be fitted in the opening.
A module holder for solar modules, - wherein a flat base structure is provided, - wherein on the base structure, multiple first hollow crests each having the same shape are arranged in a first row, - wherein on the base structure, multiple second hollow crests each having the same shape are arranged in a second row, - wherein the first crests are smaller than the second crests, - wherein the first and second rows extend in parallel to each other, and - wherein the crests (14; 15) are configured and arranged such that they can form a two-dimensional positive fit with the crests (14; 15) of another functionally identical module holder, wherein onto one of the high crests of the module holder one of the high crests of the other module holder can be fitted. - wherein a flat base structure is provided, - wherein on the base structure, multiple first hollow crests each having the same shape are arranged in a first row, - wherein on the base structure, multiple second hollow crests each having the same shape are arranged in a second row, - wherein the first crests are smaller than the second crests, - wherein the first and second rows extend in parallel to each other, and - wherein the crests (14; 15) are configured and arranged such that they can form a two-dimensional positive fit with the crests (14; 15) of another functionally identical module holder, wherein onto one of the high crests of the module holder one of the high crests of the other module holder can be fitted.
Electrical conductor inscribed in a rectangular parallelepipedal enclosure comprising voids internal to the enclosure of the conductor which extend over the length of the conductor, characterized in that the enclosure of the voids makes it possible to define a curved surface extending over the length of the conductor and whose intersection, orthogonally to the length, with any section of the conductor forms a curved line which links two adjacent corners of the enclosure-forming rectangle of said section, such that the conductor comprises a main first part and a complementary second part, the main part of the conductor comprising from 50 to 80% of the conductive material of the section of the conductor, the enclosure of the section of the first part being formed by three sides of the rectangle and the curved line, and the enclosure of the section of the second part being formed by the fourth side of the rectangle and said line, the voids being located in the second part.
A charging terminal for an electric vehicle comprising at least one electrical connection means, called terminal connector, intended to cooperate with at least one electrical connection means of a vehicle, called vehicle connector, in order to establish an electrical connection so as to convey an electrical signal from said terminal to said vehicle, said charging terminal also comprising: - at least one means, called control means, allowing or preventing the passage of an electrical charging signal to said terminal connector, - at least one means for detecting the connection of said terminal connector with said vehicle connector, - at least one means for controlling said control means in order to allow or prevent the passage of said electrical charging signal as a function of at least one item of detection data provided by the detection means, and - a compartment in which said terminal charger or chargers are arranged, the compartment being closed by a lid equipped with locking means; characterized in that said locking means comprise means for locking in an open position and means for electrically controlling these locking means, the lid and the means for locking in an open position preferably being produced and arranged so that the lid returns to its closed position under the effect of its own weight when the means for locking in an open position are deactivated by the control means. - at least one means, called control means, allowing or preventing the passage of an electrical charging signal to said terminal connector, - at least one means for detecting the connection of said terminal connector with said vehicle connector, - at least one means for controlling said control means in order to allow or prevent the passage of said electrical charging signal as a function of at least one item of detection data provided by the detection means, and - a compartment in which said terminal charger or chargers are arranged, the compartment being closed by a lid equipped with locking means;
A textile printer with a hold-down pallet, the textile printer further comprising a garment setting position and a printing area, the pallet comprising a central board and characterized in that the pallet further comprises flaps (32, 34, 36) able to alternate between an open position to allow placing of a garment and a closed position in which said flaps (32, 34, 36) hold a garment firmly on the board for printing, wherein the pallet is configured to travel between a garment setting position and a printing area and comprises a closing mechanism configured to place the flaps (32, 34, 36) in the closed position prior to entering the printing area and to place the flaps (32, 34, 36) in the open position when entering the garment setting position, characterized in that said closing mechanism comprises a lever (38, 40) and the textile printer further comprises an engagement device for engaging the lever (38, 40) of said pallet, said lever (38, 40) being configured to act on said flaps (32, 34, 36) to move said flaps (32, 34, 36) between said open position and said closed position upon engagement and upon disengagement, said moving of said flaps being according to a current position of the pallet relative to said printing area and said garment setting position. wherein the pallet is configured to travel between a garment setting position and a printing area and comprises a closing mechanism configured to place the flaps (32, 34, 36) in the closed position prior to entering the printing area and to place the flaps (32, 34, 36) in the open position when entering the garment setting position, characterized in that said closing mechanism comprises a lever (38, 40) and the textile printer further comprises an engagement device for engaging the lever (38, 40) of said pallet, said lever (38, 40) being configured to act on said flaps (32, 34, 36) to move said flaps (32, 34, 36) between said open position and said closed position upon engagement and upon disengagement, said moving of said flaps being according to a current position of the pallet relative to said printing area and said garment setting position.
A fork-lift truck comprising - a load carrier, - a first optical detector having a first field of view, - at least one optical analysing unit (4, 40, 4') arranged to receive and to analyse information from the first optical detector, - a second optical detector having a second field of view, wherein said at least one optical analysing unit (4, 40, 4') is arranged to receive and to analyse information from the second optical detector, wherein said first and second optical detector (3, 30) are movable together with the load carrier, characterised in that, said first optical detector is positioned at a first position in relation to the load carrier, such that the first field of view, if the load carrier is empty, includes at least a part of said load carrier and an extension of the load carrier so one or more potential objects (7, 8) positioned within a predetermined distance from the load carrier in the direction of the extension of the load carrier can be detected, wherein said second optical detector is positioned at a second position, such that the second field of view includes, if the load carrier is loaded, a predetermined volume above the load (7, 8) so that potential objects positioned within said predetermined volume can be detected, and wherein the position and orientation of said second detector is calibrated in relation to a predetermined position on said fork-lift truck, such that, in case one or more objects are positioned in the predetermined volume, at least one three-dimensional relative position can be determined by said at least one optical analysing unit (4, 40, 4') between, on one side, said load (7, 8) and/or load carrier, and, on the other side, said one or more objects positioned in the predetermined volume. - a load carrier, - a first optical detector having a first field of view, - at least one optical analysing unit (4, 40, 4') arranged to receive and to analyse information from the first optical detector, - a second optical detector having a second field of view,
A line pipe tray for supporting a line pipe, the line pipe tray comprising: a) a pair of outer sidewalls each having bottom edges and top edges, the outer sidewalls tilted towards each other wherein the distance between the bottom edges thereof is larger than the distance between the top edges thereof; b) a pair of outer end walls each having bottom edges and top edges, the outer end walls tilted towards each other wherein the distance between the bottom edges thereof is larger than the distance between the top edges thereof, the outer end walls operatively coupled to the outer sidewalls; c) a pair of substantially parallel inner side walls each having bottom edges and top edges, said top edges intersecting with, and operatively coupled to, the top edges of the outer sidewalls thereby forming sidewall top edges; d) a pair of substantially parallel inner end walls each having bottom edges and top edges, said top edges intersecting with, and operatively coupled to, the top edges of the outer end walls thereby forming end wall top edges, the inner end walls operatively coupled to the inner sidewalls; e) a substantially planar bottom surface disposed between and operatively coupled to the bottom edges of the inner sidewalls and the inner end walls, wherein a basin is formed therebetween; f) a first lifting handle disposed through one or both of the outer end walls; characterised in that it further comprises g) a tab disposed on the outer end wall extending into the first lifting handle. a) a pair of outer sidewalls each having bottom edges and top edges, the outer sidewalls tilted towards each other wherein the distance between the bottom edges thereof is larger than the distance between the top edges thereof; b) a pair of outer end walls each having bottom edges and top edges, the outer end walls tilted towards each other wherein the distance between the bottom edges thereof is larger than the distance between the top edges thereof, the outer end walls operatively coupled to the outer sidewalls; c) a pair of substantially parallel inner side walls each having bottom edges and top edges, said top edges intersecting with, and operatively coupled to, the top edges of the outer sidewalls thereby forming sidewall top edges; d) a pair of substantially parallel inner end walls each having bottom edges and top edges, said top edges intersecting with, and operatively coupled to, the top edges of the outer end walls thereby forming end wall top edges, the inner end walls operatively coupled to the inner sidewalls; e) a substantially planar bottom surface disposed between and operatively coupled to the bottom edges of the inner sidewalls and the inner end walls, wherein a basin is formed therebetween; f) a first lifting handle disposed through one or both of the outer end walls; characterised in that it further comprises g) a tab disposed on the outer end wall extending into the first lifting handle.
A method for cultivating cells, comprising the steps of: a) providing at least one cell present in a cell culture medium, and a cell culture substrate, b) contacting the at least one cell present in the cell culture medium with the cell culture substrate, c) incubating the at least one cell present in the cell culture medium on the cell culture substrate, characterised in that the cell culture substrate comprises a cell culture substrate of glass, and at least a part of the cell culture substrate of glass has a surface with a nanopore structure having an average pore diameter of 2 to 150 nm. a) providing at least one cell present in a cell culture medium, and a cell culture substrate, b) contacting the at least one cell present in the cell culture medium with the cell culture substrate, c) incubating the at least one cell present in the cell culture medium on the cell culture substrate,
An alkaline dry battery comprising: a hollow cylindrical positive electrode mixture including a positive electrode active material; a gelled negative electrode filled into the hollow of said positive electrode mixture and including a negative electrode active material; a separator disposed between said positive electrode mixture and said gelled negative electrode; a negative electrode current collector comprising brass having a zinc content of 30 to 40 wt% and inserted into said gelled negative electrode; a negative electrode terminal plate electrically connected to said negative electrode current collector; and an electrolyte, characterised in that said negative electrode current collector comprises brass having an average crystal particle size in the range of 0.015 mm to 0.054 mm. a hollow cylindrical positive electrode mixture including a positive electrode active material; a gelled negative electrode filled into the hollow of said positive electrode mixture and including a negative electrode active material; a separator disposed between said positive electrode mixture and said gelled negative electrode; a negative electrode current collector comprising brass having a zinc content of 30 to 40 wt% and inserted into said gelled negative electrode; a negative electrode terminal plate electrically connected to said negative electrode current collector; and an electrolyte, characterised in that said negative electrode current collector comprises brass having an average crystal particle size in the range of 0.015 mm to 0.054 mm.