mhurhangee/ep-ind-claims huggingface dataset:
An electrical switching device comprising at least two connection pads (25, 30), a measuring device configured to measure a first electrical quantity of an electrical current flowing between the two connection pads (25, 30), an electrical supply system adapted to supply a first electrical supply current, a trigger module and a switching member adapted to switch between a first position electrically connecting the two connection pads (25, 30) and a second position in which the two connection pads (25, 30) are electrically disconnected from each other, the trigger module comprising: - a first memory for storing first detection parameter values, - a first control module configured to detect an electrical fault as a function, at a minimum, of values measured by the measuring device and of the first stored values and to generate a switching signal for the switching member in response, the electrical switching device being characterised in that: - a communication module comprises a non-volatile second memory, the communication module being configured to receive, by radio frequency communication, a configuration signal containing second values of the detection parameters and to store the received second values in the second memory, - the trigger module further comprises a second control module configured to replace, in the first memory, the first values with the second values, and - the first control module is configured to compare a second electrical quantity of the first electrical supply current with a threshold and to order the supplying of electricity to the second control module if the second electrical quantity is greater than or equal to the threshold. - a first memory for storing first detection parameter values, - a first control module configured to detect an electrical fault as a function, at a minimum, of values measured by the measuring device and of the first stored values and to generate a switching signal for the switching member in response, the electrical switching device being characterised in that: - a communication module comprises a non-volatile second memory, the communication module being configured to receive, by radio frequency communication, a configuration signal containing second values of the detection parameters and to store the received second values in the second memory, - the trigger module further comprises a second control module configured to replace, in the first memory, the first values with the second values, and - the first control module is configured to compare a second electrical quantity of the first electrical supply current with a threshold and to order the supplying of electricity to the second control module if the second electrical quantity is greater than or equal to the threshold.
A housing for roll-up elements, which comprises a box-like body that is open in a lower region, in the configuration for use, and is closed laterally by two lateral covers (12, 13), said covers being fixed, with reversible locking means, each to a corresponding shoulder (15, 16) of a walled frame of a door or window with which said housing is associated, said reversible locking means comprising: - a first element that is adapted to pass, along a first insertion direction, through a through opening on a corresponding locking flap of a said lateral cover (12, 13) and is adapted to be arranged in a corresponding seat on a locking portion associated with one of said shoulders (15, 16), with an extraction-preventing head adapted to encounter said locking flap, - a second element that is adapted to be inserted in said locking portion of said shoulder along a second insertion direction, which is transverse to said first direction, for the movement of said first element so as to lock said locking flap of a said lateral cover (12, 13) between said extraction-preventing head and said locking portion on said shoulder, said first element comprising a substantially cylindrical body from which said extraction-preventing head widens at one end, characterizied in that said cylindrical body has a lateral recess that comprises an inclined surface that is designed for contact with the pointed end of the second element, said lateral recess has for example a conical or frustum-like or wedge-like profile, and said second element is constituted by a threaded grub screw with a substantially pointed end. - a first element that is adapted to pass, along a first insertion direction, through a through opening on a corresponding locking flap of a said lateral cover (12, 13) and is adapted to be arranged in a corresponding seat on a locking portion associated with one of said shoulders (15, 16), with an extraction-preventing head adapted to encounter said locking flap, - a second element that is adapted to be inserted in said locking portion of said shoulder along a second insertion direction, which is transverse to said first direction, for the movement of said first element so as to lock said locking flap of a said lateral cover (12, 13) between said extraction-preventing head and said locking portion on said shoulder, said first element comprising a substantially cylindrical body from which said extraction-preventing head widens at one end, characterizied in that said cylindrical body has a lateral recess that comprises an inclined surface that is designed for contact with the pointed end of the second element, said lateral recess has for example a conical or frustum-like or wedge-like profile, and said second element is constituted by a threaded grub screw with a substantially pointed end.
An electric gas heater device, comprising: - an outer tube of an electrically conducting material having a gas inlet in a first end and a gas outlet in second end which is opposite to the first end, - an elongated center element of an electrically conducting material arranged inside said outer tube, wherein the outer tube and the elongated center element form a channel between them, said channel having a cross-section defined by an inner periphery of the outer tube and an outer periphery of the elongated center element, wherein the outer tube is electrically connected by means of one or more interconnect to the elongated center element in one of the first or second ends, and in the other of said first or second ends, the outer tube and the elongated center element are provided with one or more electric connection elements for connection thereof to an electric power source. - an outer tube of an electrically conducting material having a gas inlet in a first end and a gas outlet in second end which is opposite to the first end, - an elongated center element of an electrically conducting material arranged inside said outer tube, wherein the outer tube and the elongated center element form a channel between them, said channel having a cross-section defined by an inner periphery of the outer tube and an outer periphery of the elongated center element, wherein the outer tube is electrically connected by means of one or more interconnect to the elongated center element in one of the first or second ends, and in the other of said first or second ends, the outer tube and the elongated center element are provided with one or more electric connection elements for connection thereof to an electric power source.
A method for chromatographically separating propionic acid from a liquid feed mixture comprising propionic acid and a carbohydrate by passing the liquid feed mixture through a bed comprising a strong base anion exchange resin.
An apparatus for monitoring the condition of a machine, comprising: (a) at least one input for receiving measurement data from a sensor for surveying a measuring point of the machine; (b) data processing means for processing condition data dependent on said measurement data; said data processing means comprising means for performing at least two condition monitoring functions (F1, F2,..., Fn); characterized by (c) at least one of said at least two of condition monitoring functions (F1, F2,..., Fn) having a disabled state and an enabled state; said disabled state prohibiting complete execution of said condition monitoring function; and said enabled state allowing execution; (d) means for changing the state of a selected condition monitoring function between the disabled state and the enabled state, and (e) a communication port for receiving a key comprising a code for enabling a selected condition monitoring function (F1, F2,..., Fn) from a first predetermined date until a second date, (f) clock functionality for providing time and date information, wherein said apparatus is adapted to change the state of the selected condition monitoring function (F1, F2,..., Fn) from the disabled state to the enabled state from said first predetermined date until said second date. (a) at least one input for receiving measurement data from a sensor for surveying a measuring point of the machine; (b) data processing means for processing condition data dependent on said measurement data; said data processing means comprising means for performing at least two condition monitoring functions (F1, F2,..., Fn); characterized by (c) at least one of said at least two of condition monitoring functions (F1, F2,..., Fn) having a disabled state and an enabled state; said disabled state prohibiting complete execution of said condition monitoring function; and said enabled state allowing execution; (d) means for changing the state of a selected condition monitoring function between the disabled state and the enabled state, and (e) a communication port for receiving a key comprising a code for enabling a selected condition monitoring function (F1, F2,..., Fn) from a first predetermined date until a second date, (f) clock functionality for providing time and date information,
A holding device for automated stopcock actuation, comprising: a base body; characterized in that the holding device further comprises a driver rotatably received at the base body, wherein the holding device has a receptacle for removably receiving at least a part of a stopcock and configured such that the driver can engage with and actuate a handle of the stopcock received in the receptacle upon rotation of the driver, and a first fixation member that is configured to allow selective fixation of the stopcock in the receptacle, wherein the first fixation member is configured to allow placement of the stopcock into the receptacle in a defined rotation position of the driver and prevent removal of the stopcock from the receptacle upon a relative rotation, between the driver and the base body, and wherein the first fixation member comprises a lip, so as to partially overlap the receptacle, and a notch in the lip arranged so as to prevent removal of the stopcock placed in the receptacle over a defined rotation range of the driver and allow removal/placement of the stopcock at a defined rotation position where the notch is aligned with the receptacle. a base body; characterized in that the holding device further comprises a driver rotatably received at the base body, wherein the holding device has a receptacle for removably receiving at least a part of a stopcock and configured such that the driver can engage with and actuate a handle of the stopcock received in the receptacle upon rotation of the driver, and a first fixation member that is configured to allow selective fixation of the stopcock in the receptacle, wherein the first fixation member is configured to allow placement of the stopcock into the receptacle in a defined rotation position of the driver and prevent removal of the stopcock from the receptacle upon a relative rotation, between the driver and the base body, and wherein the first fixation member comprises a lip, so as to partially overlap the receptacle, and a notch in the lip arranged so as to prevent removal of the stopcock placed in the receptacle over a defined rotation range of the driver and allow removal/placement of the stopcock at a defined rotation position where the notch is aligned with the receptacle.
A water heater comprising an insulating water inlet pipe and two different heating electrodes and an inner container and an outer container, wherein an upper part of the inner container is connected with the insulating water inlet pipe which communicates with a cavity of the inner container; the outer container is provided to encase the inner container and it is axially movable relative to the inner container; the two different heating electrodes are connected with one end of the inner container and one end of the outer container respectively; water outlet holes are provided on the inner container and the outer container; and as a result, the insulating water inlet pipe forms a hot water supply circuit in a sandwiched layer between the inner and the outer containers (1, 2), characterized in that a top panel and a bottom panel of the outer container are fitted with the insulating water inlet pipe; the outer wall of the insulating water inlet pipe is connected via screw threads with inner screw threads inside openings on the outer container; and as a result, the outer container can move upward or downward along the insulating water inlet pipe when it rotates clockwise or anti-clockwise.
A method of generating a hologram of a 3D spatial object including M 3D points (204, 205, 206, 502, 503) for each of N depth layers (203, 501, 601, 602), the method comprising: - for each of the N depth layers of the 3D spatial object: - generating an elemental fringe pattern or patterns (210, 301) for either a representative 3D point or each 3D point included in said depth layer of the 3D spatial object, based on a distance (d1, d2, d3) from a hologram plane, said elemental fringe pattern or patterns being one-dimensional in the hologram plane; - generating a point hologram (407, 507, 508) for each 3D point included in said depth layer comprising performing interpolation based on the generated elemental fringe pattern or patterns, each point hologram being a two-dimensional pattern in the hologram plane corresponding to a single 3D point of the 3D spatial object; - generating a hologram pattern, using the generated point holograms by accumulating the point holograms; and once the hologram patterns are generated for all the N depth layers, generating the hologram of the 3D spatial object using the generated hologram patterns. - for each of the N depth layers of the 3D spatial object: - generating an elemental fringe pattern or patterns (210, 301) for either a representative 3D point or each 3D point included in said depth layer of the 3D spatial object, based on a distance (d1, d2, d3) from a hologram plane, said elemental fringe pattern or patterns being one-dimensional in the hologram plane; - generating a point hologram (407, 507, 508) for each 3D point included in said depth layer comprising performing interpolation based on the generated elemental fringe pattern or patterns, each point hologram being a two-dimensional pattern in the hologram plane corresponding to a single 3D point of the 3D spatial object; - generating a hologram pattern, using the generated point holograms by accumulating the point holograms; and once the hologram patterns are generated for all the N depth layers, generating the hologram of the 3D spatial object using the generated hologram patterns. - generating an elemental fringe pattern or patterns (210, 301) for either a representative 3D point or each 3D point included in said depth layer of the 3D spatial object, based on a distance (d1, d2, d3) from a hologram plane, said elemental fringe pattern or patterns being one-dimensional in the hologram plane; - generating a point hologram (407, 507, 508) for each 3D point included in said depth layer comprising performing interpolation based on the generated elemental fringe pattern or patterns, each point hologram being a two-dimensional pattern in the hologram plane corresponding to a single 3D point of the 3D spatial object; - generating a hologram pattern, using the generated point holograms by accumulating the point holograms; and
Antenna system which has a housing, in which a printed circuit board is arranged, and at least one antenna element, wherein the at least one antenna element is arranged inside an outer cover, wherein a main printed circuit board without an antenna element is arranged inside the housing and an antenna printed circuit board is arranged at a distance from the main printed circuit board and also outside the housing, wherein the at least one antenna element is arranged on the antenna printed circuit board, wherein the housing has at least one opening for means for connecting the main printed circuit board to the antenna printed circuit board to pass through and, as means for connecting the main printed circuit board to the antenna printed circuit board, the main printed circuit board has a plug-in connector and the antenna printed circuit board has a plug-in connector corresponding to the plug-in connector, characterized in that there is an outer hood in addition to the outer cover, wherein the outer cover is formed by struts with cutouts between them and also has an opening for inserting the antenna printed circuit board having the at least one antenna element, in that the outer hood constitutes an antenna hood, and in that the antenna hood is placed over the outer cover, wherein the antenna hood protects the outer cover from water, moisture, snow and particles of dirt, in that the antenna hood is fastened to the housing, and in that the outer cover is fastened to the housing.
A method of attaching a hearing aid component to a skin portion behind an ear of a user, the method comprising: providing a positioning tool having a grip portion and a lower portion disposed below the grip portion, the lower portion having a cavity defined therein, the cavity having a first shape, the lower portion having a connecting portion disposed in the cavity; providing an interconnection unit having an upwardly extending connection portion, the interconnection unit having a second shape substantially similar to the first shape of the cavity so that the interconnection unit matchingly fits into the cavity, the interconnection unit having a lower adhesive surface; placing the interconnection unit in the cavity with the lower adhesive surface facing away from the positioning tool; connecting the connection portion of the interconnection unit to the connection portion of the positioning tool; abutting a portion of the ear with a side of the positioning tool; moving the positioning tool, with the interconnection unit disposed therein, towards the skin portion behind the ear while permitting the side of the positioning tool to slide along the portion of the ear to guide the positioning tool; adhering the lower adhesive surface to the skin portion behind the ear of the user; and removing the positioning tool from the interconnection unit without removing the interconnection unit from the skin portion. providing a positioning tool having a grip portion and a lower portion disposed below the grip portion, the lower portion having a cavity defined therein, the cavity having a first shape, the lower portion having a connecting portion disposed in the cavity; providing an interconnection unit having an upwardly extending connection portion, the interconnection unit having a second shape substantially similar to the first shape of the cavity so that the interconnection unit matchingly fits into the cavity, the interconnection unit having a lower adhesive surface; placing the interconnection unit in the cavity with the lower adhesive surface facing away from the positioning tool; connecting the connection portion of the interconnection unit to the connection portion of the positioning tool; abutting a portion of the ear with a side of the positioning tool; moving the positioning tool, with the interconnection unit disposed therein, towards the skin portion behind the ear while permitting the side of the positioning tool to slide along the portion of the ear to guide the positioning tool; adhering the lower adhesive surface to the skin portion behind the ear of the user; and removing the positioning tool from the interconnection unit without removing the interconnection unit from the skin portion.
Method for targetedly heat-treating individual zones of a steel component, wherein in one or more first regions of the steel component a primarily austenitic structure is established, from which a predominantly martensitic structure is producible by quenching, and in one or more second regions a predominantly ferritic-pearlitic structure is established, wherein further in one or more third regions of the steel component a predominantly bainitic structure is established, wherein the steel component is first heated in a first furnace to a temperature below the AC3 temperature, the steel component is then transferred to a treatment station, and is able to cool down during the transfer, and in the treatment station the one or more first regions and the one or more third regions of the steel component are heated to a temperature above the AC3 temperature within a dwell time t 151, wherein the third region or regions of the steel component are then cooled to the cooling stop temperature θ s, and wherein the steel component is then transferred to a second furnace in which the steel component remains at a temperature below the austenitizing temperature for a dwell time (t 130) until sufficient bainitic structure has been formed in the third region or regions.
An imaging device comprising: a print monitoring engine (104, 512) to: monitor an ink level of an ink cartridge installed in the imaging device; and track a print count for each ink level, wherein the print count for each ink level indicates a number of prints printed during one percent drop in the ink level; a print capacity estimation engine (108, 514) to: determine an average print rate for the ink cartridge based on the print count for each one percent drop in ink level; and determine a print capacity estimate of the ink cartridge based at least on the average print rate and a current ink level; and an ink cartridge controlling engine (110, 516) to. deactivate the ink cartridge upon occurrence of a predetermined event; and activate the deactivated ink cartridge in response to an activation input from a user, wherein the activation input is based on the print capacity estimate. a print monitoring engine (104, 512) to: monitor an ink level of an ink cartridge installed in the imaging device; and track a print count for each ink level, wherein the print count for each ink level indicates a number of prints printed during one percent drop in the ink level; monitor an ink level of an ink cartridge installed in the imaging device; and track a print count for each ink level, wherein the print count for each ink level indicates a number of prints printed during one percent drop in the ink level; a print capacity estimation engine (108, 514) to: determine an average print rate for the ink cartridge based on the print count for each one percent drop in ink level; and determine a print capacity estimate of the ink cartridge based at least on the average print rate and a current ink level; and an ink cartridge controlling engine (110, 516) to. deactivate the ink cartridge upon occurrence of a predetermined event; and activate the deactivated ink cartridge in response to an activation input from a user, wherein the activation input is based on the print capacity estimate. determine an average print rate for the ink cartridge based on the print count for each one percent drop in ink level; and determine a print capacity estimate of the ink cartridge based at least on the average print rate and a current ink level; and an ink cartridge controlling engine (110, 516) to. deactivate the ink cartridge upon occurrence of a predetermined event; and activate the deactivated ink cartridge in response to an activation input from a user, wherein the activation input is based on the print capacity estimate.