mhurhangee/ep-ind-claims huggingface dataset:
Agate (100, 102) for an overhead lifting rail, comprising: a rail portion (110, 112) for suspending a lifting carriage; a locking pin (114, 116) movable between a first position and a second position, wherein in the first position the lifting carriage is blocked from traversing the rail portion (110, 112), and in the second position the lifting carriage is able to traverse the rail portion (110, 112); a locking pin magnet (118, 120) coupled to the locking pin (114, 116); and a gate magnet (122, 124) fixed relative to the rail portion; wherein, upon the gate (100, 102) engaging with a corresponding second gate also comprising a rail portion, a locking pin, a locking pin magnet and a gate magnet, the locking pin magnet (114, 116) of the gate (100, 102) engages with the gate magnet of the second gate such that, upon the rail portion (110, 112) of the gate being substantially aligned with the rail portion of the second gate, the locking pin (114, 116) is moved from the first position to the second position. a rail portion (110, 112) for suspending a lifting carriage; a locking pin (114, 116) movable between a first position and a second position, wherein in the first position the lifting carriage is blocked from traversing the rail portion (110, 112), and in the second position the lifting carriage is able to traverse the rail portion (110, 112); a locking pin magnet (118, 120) coupled to the locking pin (114, 116); and a gate magnet (122, 124) fixed relative to the rail portion; wherein, upon the gate (100, 102) engaging with a corresponding second gate also comprising a rail portion, a locking pin, a locking pin magnet and a gate magnet, the locking pin magnet (114, 116) of the gate (100, 102) engages with the gate magnet of the second gate such that, upon the rail portion (110, 112) of the gate being substantially aligned with the rail portion of the second gate, the locking pin (114, 116) is moved from the first position to the second position.
A process to refine a conjugated linoleic acid-containing material comprising: distilling a first ester stream containing esters of conjugated linoleic acids using a distillation apparatus which is a thin-film or wiped-film evaporator and contains a fractionating column; and producing a second ester stream enriched in the esters of conjugated linoleic acids. distilling a first ester stream containing esters of conjugated linoleic acids using a distillation apparatus which is a thin-film or wiped-film evaporator and contains a fractionating column; and producing a second ester stream enriched in the esters of conjugated linoleic acids.
A support intended to receive an individual weapon on board a vehicle, said support including at least one rigid frame which can be fixed to a partition of the vehicle, said support being characterised in that the rigid frame includes a vertical bar positioned at a rear part of the support in order to be able to be fixed to the partition and on which a resilient cellular structure is fixed including at least two panels each including at least one so-called inner face which are opposite one another, between which inner faces the weapon can be slid and held by bringing the panels closer to each other, which is ensured by a holding means (11, 18), the cellular structure thus being able to bend relative to the vertical bar of the frame.
An intelligent dimmer for managing a lighting load coupled to an AC voltage source, the intelligent dimmer comprising: a control circuit coupled between the lighting load and the AC voltage source, the control circuit having a threshold load current value for the lighting load associated therewith; a line voltage sensor coupled between the lighting load and the AC voltage source in communication with the control circuit, the line voltage sensor for reading the line voltage across the lighting load; and a load sensor located in communication with the control circuit, the load sensor for sampling the load current being provided to the lighting load, wherein the control circuit compares the sampled load current to the threshold load current to determine the presence of a load current cutoff condition, said cutoff condition appears when the load current meets or exceeds the threshold value, the control circuit selectively adjusting the line voltage applied to the lighting load in response to the load current cutoff condition. a control circuit coupled between the lighting load and the AC voltage source, the control circuit having a threshold load current value for the lighting load associated therewith; a line voltage sensor coupled between the lighting load and the AC voltage source in communication with the control circuit, the line voltage sensor for reading the line voltage across the lighting load; and a load sensor located in communication with the control circuit, the load sensor for sampling the load current being provided to the lighting load, wherein the control circuit compares the sampled load current to the threshold load current to determine the presence of a load current cutoff condition, said cutoff condition appears when the load current meets or exceeds the threshold value, the control circuit selectively adjusting the line voltage applied to the lighting load in response to the load current cutoff condition.
Method for determining an indicator (24a, 24b, 24c, 24d) for the hit probability of a weapon system, the method comprising the steps: Determining scenario parameters of the weapon system; Reducing a global representation of the weapon system to a representation (46a, 46b, 46c, 46d) which is adapted to an indicator (24a, 24b, 24c, 24d) based on determined scenario parameters, wherein the global representation is based on an artificial neuronal net and approximates a partial area of a room of parameters of scenario parameters, which partial area is built of scenario parameters at which the weapon system hits, and wherein the reduced representation is based on an artificial neuronal net which is generated by reduction of the artificial neuronal net of the global representation, in that entry neurons of the artificial neuronal net of the global representation are pre-allocated with scenario parameters assigned to the indicator (24a, 24b, 24c, 24d); Determining the indicator (24a, 24b, 24c, 24d) based on the reduced representation. Determining scenario parameters of the weapon system; Reducing a global representation of the weapon system to a representation (46a, 46b, 46c, 46d) which is adapted to an indicator (24a, 24b, 24c, 24d) based on determined scenario parameters, wherein the global representation is based on an artificial neuronal net and approximates a partial area of a room of parameters of scenario parameters, which partial area is built of scenario parameters at which the weapon system hits, and wherein the reduced representation is based on an artificial neuronal net which is generated by reduction of the artificial neuronal net of the global representation, in that entry neurons of the artificial neuronal net of the global representation are pre-allocated with scenario parameters assigned to the indicator (24a, 24b, 24c, 24d); Determining the indicator (24a, 24b, 24c, 24d) based on the reduced representation.
A lift system configured to lift an article, the lift system comprising: a first cable configured to be coupled to the article; a second cable configured to be coupled to the article; a drive mechanism coupled to the first cable and the second cable and operable to raise and lower the article; a first loft block including a first loft sheave to redirect the first cable from a first substantially horizontal axis to a first substantially vertical axis, and an idler sheave to direct the second cable along a second substantially horizontal axis; and a second loft block including a second loft sheave to redirect the second cable from the second substantially horizontal axis to a second substantially vertical axis, wherein the idler sheave of the first loft block is located at least partially above the first horizontal axis; and wherein the first vertical axis extends through the idler sheave such that at least a portion of the idler sheave vertically overlaps with the first loft sheave. a first cable configured to be coupled to the article; a second cable configured to be coupled to the article; a drive mechanism coupled to the first cable and the second cable and operable to raise and lower the article; a first loft block including a first loft sheave to redirect the first cable from a first substantially horizontal axis to a first substantially vertical axis, and an idler sheave to direct the second cable along a second substantially horizontal axis; and a second loft block including a second loft sheave to redirect the second cable from the second substantially horizontal axis to a second substantially vertical axis, wherein the idler sheave of the first loft block is located at least partially above the first horizontal axis; and wherein the first vertical axis extends through the idler sheave such that at least a portion of the idler sheave vertically overlaps with the first loft sheave.
Sensor for detection of transcutaneous gas, in particular for detection of CO2, comprising a contact face which is directable towards a measuring site on the skin of a human or animal subject, at least one radiation source for emission of measuring radiation, a measurement volume for receiving the gas to be measured, and a detector for detection of electromagnetic radiation, said detector comprising at least a first detection surface and a second detection surface and at least one wavelength sensitive element, preferably a wavelength filter such as an interference filter, wherein the wavelength sensitive element is substantially transparent for radiation of wavelengths in a first wavelength band incident onto the wavelength sensitive element in a first range of incidence angles and for radiation of wavelengths in a second wavelength band incident onto the wavelength sensitive element in a second range of incidence angles, wherein the first and the second wavelength bands are at least partly different from each other and wherein the first and the second ranges of incidence angles are at least partly different from each other, the first detection surface and the second detection surface and the at least one wavelength sensitive element are arranged such that radiation in the first wavelength band propagates through the wavelength sensitive element such that it impinges on said first detection surface and is detectable by said first detection surface and such that radiation of the second wavelength band propagates through the wavelength sensitive element such that it impinges on said second detection surface and is detectable by said second detection surface, wherein preferably the sensor without communication and power supply means fits into a virtual cylinder having a diameter of 30 mm and a height of 20 mm or into a virtual volume of 15 cm 3.
A system for providing an emergency vehicle, EV, alert, comprising: a plurality of sensors configured to collect EV-related data, including data related to at least an operation status and an occupancy status of an EV; a processor configured to generate a geofence for the EV and configured to vary a size or shape of the generated geofence depending on a working mode of the EV, a determined intent associated with the EV, and the EV-related data; and a transmitter configured to transmit the generated geofence, wherein the working mode includes a non-emergency mode and at least one emergency mode, and wherein the intent is determined based on a moving status of the EV. a plurality of sensors configured to collect EV-related data, including data related to at least an operation status and an occupancy status of an EV; a processor configured to generate a geofence for the EV and configured to vary a size or shape of the generated geofence depending on a working mode of the EV, a determined intent associated with the EV, and the EV-related data; and a transmitter configured to transmit the generated geofence, wherein the working mode includes a non-emergency mode and at least one emergency mode, and wherein the intent is determined based on a moving status of the EV.
A diagnostic method for the diagnosis of prostate and/or colon cancer in a patient comprising the steps of: a. quantifying the expression levels of In1-ghrelin as defined in SEQ ID NO.: 1 in a plasma, serum, blood and/or urine sample isolated from an individual suspected of having prostate and/or colon cancer; b. comparing the levels obtained in step (a) with a reference value or with the expression levels of In1-ghrelin as defined in SEQ ID NO.: 1 in a reference sample; and c. assigning the individuals having expression levels of In1-ghrelin obtained in step (b) that are greater than and statistically significant with respect to the reference value or the expression levels of the reference sample to the group of individuals at risk of having prostate and/or colon cancer. a. quantifying the expression levels of In1-ghrelin as defined in SEQ ID NO.: 1 in a plasma, serum, blood and/or urine sample isolated from an individual suspected of having prostate and/or colon cancer; b. comparing the levels obtained in step (a) with a reference value or with the expression levels of In1-ghrelin as defined in SEQ ID NO.: 1 in a reference sample; and c. assigning the individuals having expression levels of In1-ghrelin obtained in step (b) that are greater than and statistically significant with respect to the reference value or the expression levels of the reference sample to the group of individuals at risk of having prostate and/or colon cancer.
A mixing rotor (4; 5) for use in an internal mixer, the mixing rotor (4; 5) comprising: a rotor shaft portion that includes a cooling passageway formed therein; and a mixing blade portion that is formed in an outer circumferential portion of the rotor shaft portion, wherein the mixing blade portion includes a short blade (15; 16) at a predetermined length in an axis direction of the rotor shaft portion, and at least two long blades (13; 14) at lengths larger than the length of the short blade (15; 16) in the axis direction, each of the long blades (13; 14) including a land portion (13a; 14a) as an end surface of the long blade (13; 14) facing a radially outside of the mixing rotor (4; 5), characterized in that the length of each of the long blades (13; 14) in the axis direction is set to be 0.6 times or more as large as a length of the mixing blade portion in the axis direction, a biting angle (θ 1) of each of the long blades (13; 14) is set to an angle equal to or smaller than 31°, and a center angle (θ 2) with respect to a land width as a width of the land portion (13a; 14a) in a cross-section of each of the long blades (13; 14) orthogonal to the axis direction is set to an angle equal to or larger than 7°. a rotor shaft portion that includes a cooling passageway formed therein; and a mixing blade portion that is formed in an outer circumferential portion of the rotor shaft portion, wherein the mixing blade portion includes a short blade (15; 16) at a predetermined length in an axis direction of the rotor shaft portion, and at least two long blades (13; 14) at lengths larger than the length of the short blade (15; 16) in the axis direction, each of the long blades (13; 14) including a land portion (13a; 14a) as an end surface of the long blade (13; 14) facing a radially outside of the mixing rotor (4; 5), characterized in that the length of each of the long blades (13; 14) in the axis direction is set to be 0.6 times or more as large as a length of the mixing blade portion in the axis direction, a biting angle (θ 1) of each of the long blades (13; 14) is set to an angle equal to or smaller than 31°, and a center angle (θ 2) with respect to a land width as a width of the land portion (13a; 14a) in a cross-section of each of the long blades (13; 14) orthogonal to the axis direction is set to an angle equal to or larger than 7°.
An ejection plate capable of ejecting pipette tips from nozzles of a fluid delivery device having ejection rods, which ejection plate comprises: a plate member comprising two opposing plate member surfaces; an array of bores, each of the bores terminating at each of the opposing plate member surfaces, wherein the surface of each of the bores is not a vertical surface extending from one plate member surface to the other plate member surface.; and connectors each in association with a surface of the ejection plate, each of which connectors comprises a magnetized material and is configured to magnetically connect the ejection plate to an ejection rod of a fluid delivery device or each of which connectors is configured to magnetically connect the ejection plate to another ejection plate attached to a fluid delivery device. a plate member comprising two opposing plate member surfaces; an array of bores, each of the bores terminating at each of the opposing plate member surfaces, wherein the surface of each of the bores is not a vertical surface extending from one plate member surface to the other plate member surface.; and connectors each in association with a surface of the ejection plate, each of which connectors comprises a magnetized material and is configured to magnetically connect the ejection plate to an ejection rod of a fluid delivery device or each of which connectors is configured to magnetically connect the ejection plate to another ejection plate attached to a fluid delivery device.
A motor load control apparatus for supplying electric power output from a power source to a motor load by PWM control to drive the motor load, comprising: a switch section provided in a circuit for connecting the power source to the motor load; and a PWM control section that drives the switch section by a PWM signal, wherein the switch section includes a first electronic switch and a second electronic switch which are connected in parallel; and wherein the PWM control section drives the first electronic switch by the PWM signal and drives the second electronic switch by a signal which is delayed from the PWM signal by a predetermined delay time, the motor load control apparatus being characterized in that the PWM control section is adapted to change the delay time every each period. a switch section provided in a circuit for connecting the power source to the motor load; and a PWM control section that drives the switch section by a PWM signal, wherein the switch section includes a first electronic switch and a second electronic switch which are connected in parallel; and wherein the PWM control section drives the first electronic switch by the PWM signal and drives the second electronic switch by a signal which is delayed from the PWM signal by a predetermined delay time, the motor load control apparatus being characterized in that the PWM control section is adapted to change the delay time every each period.
Support structure for a seat, comprising: - an upper element that is intended to constitute or to be bound to a seat, - a lower support element which is associated with an upright for supporting said seat, said upright being of a telescopic type (11, 13) and being provided with means for adjusting its height and a device for the control of said adjusting means, - at least one elastic element, which is interposed between the lower surface of said upper element and said lower support element, said at least one elastic element constitutes the only sustaining element of said upper element with respect to said lower support element, so as to allow both the inclination and the translation of said upper element with respect to a substantially vertical axis, and characterized in that it comprises an inner collar which is fitted around said upright and which defines an actuating lever, with substantially annular development, cooperating with a member acting on said control device of said means for adjusting the height of said upright, and that said inner collar comprises at least one first toothed appendage cooperating with at least one corresponding second toothed appendage formed on said member acting on the control device of said means for adjusting the height of said upright. - an upper element that is intended to constitute or to be bound to a seat, - a lower support element which is associated with an upright for supporting said seat, said upright being of a telescopic type (11, 13) and being provided with means for adjusting its height and a device for the control of said adjusting means, - at least one elastic element, which is interposed between the lower surface of said upper element and said lower support element, said at least one elastic element constitutes the only sustaining element of said upper element with respect to said lower support element, so as to allow both the inclination and the translation of said upper element with respect to a substantially vertical axis,
A blasting protection device comprising a communication device and blasting protection clothing, the communication device has a headset, a microphone, a push switch and a radiotelephone, the blasting protection clothing has a helmet and a sheathing, in particular an apron, connected therewith, the headset and the microphone are disposed in the helmet, characterized in that the communication device further has a carrying part accommodating the push switch and the radiotelephone, that the carrying part has attaching means, and that holding means, which cooperate with the attaching means and enable a detachable attachment of the carrying part to the inside of the sheathing, are disposed on a chest-side inside of the sheathing.
A radiator (12; 41) for selectively heating and cooling comprising: first and second spaced apart generally parallel headers (42, 45), the first header for conducting a source fluid into the microchannel radiator and the second header for conducting a source fluid out of the microchannel radiator, a series of generally parallel pairs of microchannel tubes (16; 48) fluidly connecting the first and second headers (42, 45), wherein a first spacing separating the microchannel tubes forming each of the pairs of microchannel tubes, a second spacing separating adjacent pairs of microchannel tubes, and, characterised in that: the first spacings are narrower than the second spacings, fins located in the first spacings for conductively connecting the microchannel tubes forming each of the pairs, and a phase change material cell (17; 52) located in the second spacings, wherein the cell (17; 52) contacts the pair of microchannel tubes bounding the cell. first and second spaced apart generally parallel headers (42, 45), the first header for conducting a source fluid into the microchannel radiator and the second header for conducting a source fluid out of the microchannel radiator, a series of generally parallel pairs of microchannel tubes (16; 48) fluidly connecting the first and second headers (42, 45), wherein a first spacing separating the microchannel tubes forming each of the pairs of microchannel tubes, a second spacing separating adjacent pairs of microchannel tubes, and, a first spacing separating the microchannel tubes forming each of the pairs of microchannel tubes, a second spacing separating adjacent pairs of microchannel tubes, and, characterised in that: the first spacings are narrower than the second spacings, fins located in the first spacings for conductively connecting the microchannel tubes forming each of the pairs, and a phase change material cell (17; 52) located in the second spacings, wherein the cell (17; 52) contacts the pair of microchannel tubes bounding the cell.