mhurhangee/ep-ind-claims huggingface dataset:
Conveying system comprising: - two axially spaced supporting frames (2, 3) extending substantially parallel in the conveying direction of the conveying system; - at least one plurality of rollers having an outer surface; - at least one plurality of supporting shafts, each adapted to be engaged in at least one of said supporting tubular frames (2, 3) to support at least one roller; whereby each roller comprises: - at least one roller body extending around a rotation axis X-X; - at least one engaging seat for at least one supporting shaft, placed concentrically to said roller body; - at least a first removable coupling means for a second roller, a cover or a spacer; - at least a radial seat realized on the outer surface of said supporting shaft, characterized in that the engaging seat comprises at least one radially inner rib corresponding to said at least radial seat realized on the external surface of said shaft; said radially inner rib being adapted to be coupled with said corresponding radial seat realized on the outer surface of said supporting shaft. - two axially spaced supporting frames (2, 3) extending substantially parallel in the conveying direction of the conveying system; - at least one plurality of rollers having an outer surface; - at least one plurality of supporting shafts, each adapted to be engaged in at least one of said supporting tubular frames (2, 3) to support at least one roller; whereby each roller comprises: - at least one roller body extending around a rotation axis X-X; - at least one engaging seat for at least one supporting shaft, placed concentrically to said roller body; - at least a first removable coupling means for a second roller, a cover or a spacer; - at least a radial seat realized on the outer surface of said supporting shaft,
Refrigerated sales furniture comprising: a refrigerable goods storage and presentation space having a front access portion providing access to the goods storage and presentation space from the front; an upper access portion providing access to the goods storage and presentation space from above; a front door, particularly an at least partially transparent front door, comprising a door panel which is moveable in a pivotable motion around a basically vertical axis between a closed position closing the front access portion and at least one access position providing access to the goods storage and presentations space from the front; an upper door, particularly an at least partially transparent upper door, which is moveable around an axis being situated at or close to the rearward end thereof between a closed position closing the upper access portion and at least one access position providing access to the goods storage and presentation space from above; and a linking mechanism linking the front door and the upper door with each other so that a movement of one of the doors (10, 12) causes a corresponding movement of the other door (10, 12). a refrigerable goods storage and presentation space having a front access portion providing access to the goods storage and presentation space from the front; an upper access portion providing access to the goods storage and presentation space from above; a front door, particularly an at least partially transparent front door, comprising a door panel which is moveable in a pivotable motion around a basically vertical axis between a closed position closing the front access portion and at least one access position providing access to the goods storage and presentations space from the front; an upper door, particularly an at least partially transparent upper door, which is moveable around an axis being situated at or close to the rearward end thereof between a closed position closing the upper access portion and at least one access position providing access to the goods storage and presentation space from above; and a linking mechanism linking the front door and the upper door with each other so that a movement of one of the doors (10, 12) causes a corresponding movement of the other door (10, 12).
A surroundings monitoring system for a work machine, comprising: a controller configured to detect a person present around the work machine and switch a state of the work machine between a first state and a second state based on a detection result of the controller, wherein the first state includes a state where a restriction on an operation of the work machine is canceled, the second state includes a state where the operation of the work machine is restricted or stopped, the controller is configured to return the state of the work machine to the first state when a predetermined condition is satisfied after switching the state of the work machine to the second state, the predetermined condition includes that no person is detected around the work machine and that it is ensured that the work machine is prevented from starting to operate, and that the work machine is prevented from starting to operate includes that an operation apparatus is in a neutral position for a predetermined time or more, a gate lock lever is lowered, or hands and feet of an operator are off the operation apparatus. a controller configured to detect a person present around the work machine and switch a state of the work machine between a first state and a second state based on a detection result of the controller, wherein the first state includes a state where a restriction on an operation of the work machine is canceled, the second state includes a state where the operation of the work machine is restricted or stopped, the controller is configured to return the state of the work machine to the first state when a predetermined condition is satisfied after switching the state of the work machine to the second state, the predetermined condition includes that no person is detected around the work machine and that it is ensured that the work machine is prevented from starting to operate, and that the work machine is prevented from starting to operate includes that an operation apparatus is in a neutral position for a predetermined time or more, a gate lock lever is lowered, or hands and feet of an operator are off the operation apparatus.
A method for analysing a Surface Plasmon Resonance Signal, the method comprising: processing a first signal indicative of an intensity of light, received from a conductive layer at which SPR has occurred, as a function of angle of incidence, reflection or diffraction at the layer, the first signal having two dips (201,202), each dip corresponding to a respective wavelength of the light, at a respective angle (m1i, m2i) at which surface plasmon resonance occurs for the respective wavelength and a peak between the two dips (201, 202), wherein the processing includes deriving a first value of a quantity indicative of signal magnitude in the region of the peak; processing a second signal indicative of an intensity of light, received from a conductive layer at which SPR has occurred, as a function of angle of incidence, reflection or diffraction at the layer, the second signal having two dips (301, 302), each dip corresponding to a respective wavelength of the light, at a respective angle (m1f, m2f) at which surface plasmon resonance occurs for the respective wavelength and a peak between the two dips (301,302), wherein the processing includes deriving a second value of a quantity indicative of signal magnitude in the region of the peak; and comparing the first and second values to detect a change in refractive index at the conductive layer after the first signal and before the second signal was captured. processing a first signal indicative of an intensity of light, received from a conductive layer at which SPR has occurred, as a function of angle of incidence, reflection or diffraction at the layer, the first signal having two dips (201,202), each dip corresponding to a respective wavelength of the light, at a respective angle (m1i, m2i) at which surface plasmon resonance occurs for the respective wavelength and a peak between the two dips (201, 202), wherein the processing includes deriving a first value of a quantity indicative of signal magnitude in the region of the peak; processing a second signal indicative of an intensity of light, received from a conductive layer at which SPR has occurred, as a function of angle of incidence, reflection or diffraction at the layer, the second signal having two dips (301, 302), each dip corresponding to a respective wavelength of the light, at a respective angle (m1f, m2f) at which surface plasmon resonance occurs for the respective wavelength and a peak between the two dips (301,302), wherein the processing includes deriving a second value of a quantity indicative of signal magnitude in the region of the peak; and comparing the first and second values to detect a change in refractive index at the conductive layer after the first signal and before the second signal was captured.
A method for receiving a signal by a terminal in a wireless communication system, the method comprising: acquiring, through higher layer signaling, a configuration for a reference signal including a tracking reference signal, TRS, for a radio resource control, RRC, idle mode or an RRC inactive mode; receiving, based on a radio network temporary identifier, RNTI, configured in the terminal, paging downlink control information, DCI, carried by a physical downlink control channel, PDCCH, in the RRC idle mode or in the RCC inactive mode; determining availability of the reference signal, based on availability indication information of the reference signal included in the paging DCI; and receiving the reference signal in the RRC idle mode or the RRC inactive mode based on the determination of the availability of the reference signal and the acquired configuration for the reference signal, wherein the RNTI for the reception of the DCI is a paging-RNTI, P-RNTI, for paging; and wherein the configuration for the reference signal includes a periodicity and a slot offset of the reference signal. acquiring, through higher layer signaling, a configuration for a reference signal including a tracking reference signal, TRS, for a radio resource control, RRC, idle mode or an RRC inactive mode; receiving, based on a radio network temporary identifier, RNTI, configured in the terminal, paging downlink control information, DCI, carried by a physical downlink control channel, PDCCH, in the RRC idle mode or in the RCC inactive mode; determining availability of the reference signal, based on availability indication information of the reference signal included in the paging DCI; and receiving the reference signal in the RRC idle mode or the RRC inactive mode based on the determination of the availability of the reference signal and the acquired configuration for the reference signal, wherein the RNTI for the reception of the DCI is a paging-RNTI, P-RNTI, for paging; and wherein the configuration for the reference signal includes a periodicity and a slot offset of the reference signal.
A clamp applicable to a tyre of a vehicle wheel and comprising: - a body including a plurality of arms (11, 12, 13) extending radially from a central axis and angularly distributed around the central axis; - a plurality of sliders (21, 22, 23), each slidably coupled to a respective arm (11, 12, 13) to move radially between a retracted position, where it is at a first distance from the central axis, and an extracted position, where it is at a second distance from the central axis, greater than the first distance, each slider (21, 22, 23) including a side abutment portion (21', 22', 23'), running parallel with the central axis and configured to abut against a tread of the tyre, and a front abutment portion (21", 22", 23"), running parallel with a respective arm (11, 12, 13) and configured to abut against a sidewall of the tyre; - an operating mechanism configured to allow simultaneously moving the sliders (21, 22, 23) from the retracted position to the extracted position and vice versa; the clamp being characterized in that the plurality of sliders (21, 22, 23) includes a rolling support system configured to come into rolling direct contact with the tyre and rotatable idly about an axis of rotation such that once the clamp has been juxtaposed with the tyre, its position relative to the wheel can be adjusted by rolling movement of the rolling support system on an outside surface of the tyre. - a body including a plurality of arms (11, 12, 13) extending radially from a central axis and angularly distributed around the central axis; - a plurality of sliders (21, 22, 23), each slidably coupled to a respective arm (11, 12, 13) to move radially between a retracted position, where it is at a first distance from the central axis, and an extracted position, where it is at a second distance from the central axis, greater than the first distance, each slider (21, 22, 23) including a side abutment portion (21', 22', 23'), running parallel with the central axis and configured to abut against a tread of the tyre, and a front abutment portion (21", 22", 23"), running parallel with a respective arm (11, 12, 13) and configured to abut against a sidewall of the tyre; - an operating mechanism configured to allow simultaneously moving the sliders (21, 22, 23) from the retracted position to the extracted position and vice versa;
A method of operating a spectrum sensor, comprising: monitoring a wireless channel spectrum; generating, based on the monitoring, a local decision at the spectrum sensor that indicates whether or not a licensed signal is detected above a threshold field strength within the wireless channel spectrum; and transmitting the local decision to a control node to facilitate a determination as to whether the wireless channel spectrum is unused licensed wireless channel spectrum that is available for unlicensed wireless use performing at the spectrum sensor multiple field strength measurements (850, 852) of the licensed signal over a time period; and characterised by generating at the spectrum sensor a measured field strength value from said multiple field strength measurements of the licensed signal; generating at the spectrum sensor a reliability indicator value indicating the reliability of the generated field strength, based on generating one of: i) a variance and ii) a standard deviation from said multiple measurements of the field strength measurements, and transmitting the measured field strength value indicating the measured field strength of the licensed signal and with said measured field strength value said reliability indicator value indicating the reliability of the measured field strength value.
Filled polyolefin compositions comprising: A) from 99.9% to 75% by weight of a polypropylene component; B) from 0.1% to 25% by weight of a nanosize mineral filler; wherein the percentages of A) and B) are referred to the sum of A) and B), and A) is selected from the following compositions: a) a polypropylene composition containing from 20% to 70% by weight of a polypropylene fraction A I) having a melt flow rate (MFR I) value of 100 g/10 min. or more, and from 30% to 80% by weight of a polypropylene fraction A II) having a melt flow rate (MFR II) value of from 0.1 to 30 g/10 min., the said percentages of A I) and A II) being referred to the sum of A I) and A II); or b) a polypropylene composition containing from 15% to 60% by weight of a polypropylene fraction A I) having a melt flow rate (MFR I) value of 100 g/10 min. or more, from 25% to 70% by weight of a polypropylene fraction A II) having a melt flow rate (MFR II) value of from 0.1 to 30 g/10 min. and from 0.5% to 20% by weight of a compatibilizer Q), the said percentages of A I), A II) and Q) being referred to the sum of A I), A II) and Q); said fractions A I) and A II) being independently selected from propylene homopolymers and random copolymers of propylene containing up to 5% by moles of ethylene and/or C 4 -C 10 α-olefin(s), all the melt flow rate values being measured according to ISO 1133 with a load of 2.16 kg at 230 °C. A) from 99.9% to 75% by weight of a polypropylene component; B) from 0.1% to 25% by weight of a nanosize mineral filler; a) a polypropylene composition containing from 20% to 70% by weight of a polypropylene fraction A I) having a melt flow rate (MFR I) value of 100 g/10 min. or more, and from 30% to 80% by weight of a polypropylene fraction A II) having a melt flow rate (MFR II) value of from 0.1 to 30 g/10 min., the said percentages of A I) and A II) being referred to the sum of A I) and A II); or b) a polypropylene composition containing from 15% to 60% by weight of a polypropylene fraction A I) having a melt flow rate (MFR I) value of 100 g/10 min. or more, from 25% to 70% by weight of a polypropylene fraction A II) having a melt flow rate (MFR II) value of from 0.1 to 30 g/10 min. and from 0.5% to 20% by weight of a compatibilizer Q), the said percentages of A I), A II) and Q) being referred to the sum of A I), A II) and Q);
A heat exchanger comprising: a heat exchanger core configured as a stack of plates, alternating ducts for a flow of refrigerant and a flow of a liquid coolant defined between adjacent ones of the plates; a flange plate joined to a lowermost plate of the stack of plates, the flange plate comprising an upper plate facing the heat exchanger core to which the lowermost plate of the stack of plates is joined, and a lower plate facing away from the heat exchanger core, characterised in that the heat exchanger further comprises a supercooling passage for the flow of refrigerant arranged within the flange plate and bounded by at least one of the upper and lower plates (140, 160) of the flange plate, the supercooling passage extending directly below the heat exchanger core to allow for the transfer of heat between refrigerant passing through the supercooling passage and liquid coolant passing through that duct of the heat exchanger core bounded by said lowermost plate of the stack of plates. a heat exchanger core configured as a stack of plates, alternating ducts for a flow of refrigerant and a flow of a liquid coolant defined between adjacent ones of the plates; a flange plate joined to a lowermost plate of the stack of plates, the flange plate comprising an upper plate facing the heat exchanger core to which the lowermost plate of the stack of plates is joined, and a lower plate facing away from the heat exchanger core, characterised in that the heat exchanger further comprises a supercooling passage for the flow of refrigerant arranged within the flange plate and bounded by at least one of the upper and lower plates (140, 160) of the flange plate, the supercooling passage extending directly below the heat exchanger core to allow for the transfer of heat between refrigerant passing through the supercooling passage and liquid coolant passing through that duct of the heat exchanger core bounded by said lowermost plate of the stack of plates.
A lyophilized composition comprising: (a) ANG1005 wherein ANG1005 has the structure: (b) an optional tonicity agent; (c) a buffering agent; (d) a bulking agent; (e) a solubilizing agent, wherein said solubilizing agent is a polyoxyethylene ester of a fatty acid; and (f) 0.2 to 10% DMSO. (a) ANG1005 wherein ANG1005 has the structure: (b) an optional tonicity agent; (c) a buffering agent; (d) a bulking agent; (e) a solubilizing agent, wherein said solubilizing agent is a polyoxyethylene ester of a fatty acid; and (f) 0.2 to 10% DMSO.
Operating method for a device which has a diesel engine having a crankshaft and a plurality of cylinders and an exhaust gas post-treatment system, wherein a fuel injection into at least one of the cylinders is shut down when required and the at least one shut-down cylinder is set to a braking mode such that, in particular, the temperature of the exhaust gas for the exhaust gas post-treatment system can be increased, wherein: controlling the temperature of the exhaust gas for the exhaust gas post-treatment system comprises two degrees of freedom, specifically shutting down the fuel injection into at least one of the cylinders and setting the at least one shut-down cylinder to the braking mode; and setting the at least one shut-down cylinder to the braking mode is accomplished by means of a cam contour device. controlling the temperature of the exhaust gas for the exhaust gas post-treatment system comprises two degrees of freedom, specifically shutting down the fuel injection into at least one of the cylinders and setting the at least one shut-down cylinder to the braking mode; and setting the at least one shut-down cylinder to the braking mode is accomplished by means of a cam contour device.
An anti-asphyxia valve adapted to, in use, be disposed between a patient and means to deliver a breathable gas to the patient, the valve comprising a housing (18, 20, 40) having an interior, at least one port to provide fluid communication between the housing interior and atmosphere, the valve being characterised in that the valve includes a flap means comprising a first portion adapted for mounting to the housing and a second portion adapted to flex between a first biased open position allowing gas to pass from the housing interior through the port(s) to atmosphere when the difference in gas pressure in the housing interior and atmosphere is below a predetermined operating threshold and a second forced closed position substantially occluding the port(s) when the difference in gas pressure between the housing interior and atmosphere is substantially equal to or above the operating threshold, whereby the valve allows the patient to inhale and exhale gas from and to atmosphere when the means to deliver an operating breathable gas generates less pressure than said threshold gas pressure.
A cell growth scaffold having a memory property structure, comprising a matrix material for cell growth, characterized in that, said scaffold is formed by mixing, in respective dry weight mass proportions, a micro-fibrous or flocculent acellular tissue matrix material having a fibre diameter of 2-250 microns and a length of 100-3000 microns with an acidification-treated, hydrogel-like acellular tissue matrix material having a particle diameter of 2-150 microns, followed by injection molding, freezing and extruding, re-interweaving and radiation processes; wherein, the matrix material for cell growth is a matrix material of said cell growth scaffold, the content of the total acellular tissue matrix materials in the matrix material of said cell growth scaffold is 10~100 mg/cm 3, the total voidage is 90~99%, and, the voidage of the matrix material with particles larger than 25 microns is 80-98%.