mhurhangee/ep-ind-claims huggingface dataset:
A multilayer pipe consisting of layers in a structure: a) first layer made of LDPE polyethylene or a combination of 80% LDPE polyethylene and 20% HDPE polyethylene b) second layer, consisting of a combination of 50-70% LDPE polyethylene or a combination of 80% LDPE polyethylene and 20% HDPE polyethylene with addition of a recycled polyethylene granulate in the amount of 30-50%. c) third layer, which is the binding layer d) fourth layer, which is a barrier layer of EVOH e) fifth layer, which is the binding layer sixth layer, which is LDPE polyethylene or a combination of 80% LDPE polyethylene and 20% HDPE polyethylene, characterized in that the first layer made of LDPE polyethylene or a combination of 80% LDPE polyethylene and 20% HDPE polyethylene contains dispersed particles of zinc oxide in the amount from 5 × 10 2 to 1 × 10 4 ppm. a) first layer made of LDPE polyethylene or a combination of 80% LDPE polyethylene and 20% HDPE polyethylene b) second layer, consisting of a combination of 50-70% LDPE polyethylene or a combination of 80% LDPE polyethylene and 20% HDPE polyethylene with addition of a recycled polyethylene granulate in the amount of 30-50%. c) third layer, which is the binding layer d) fourth layer, which is a barrier layer of EVOH e) fifth layer, which is the binding layer sixth layer, which is LDPE polyethylene or a combination of 80% LDPE polyethylene and 20% HDPE polyethylene,
A method for conducting nondestructive inspection of a rotary drill bit (10, 100, 110) for subterranean drilling comprising: inserting at least one of an ultrasonic energy emitter and an ultrasonic energy receiver into a longitudinal bore of a rotary drill bit (10, 100, 110); positioning the at least one of the ultrasonic energy emitter and the ultrasonic energy receiver at a predetermined selected location relative to the rotary drill bit (10, 100, 110) using at least one reference feature of the rotary drill bit (10, 100, 110); communicating ultrasonic waves into at least a portion of the rotary drill bit (10, 100, 110) from the ultrasonic energy emitter; detecting ultrasonic waves that are at least one of reflected and refracted by the at least a portion of the rotary drill bit (10, 100, 110) using the ultrasonic energy receiver; and generating a representation of at least a portion of the rotary drill bit (10, 100, 110) using the detected ultrasonic waves. inserting at least one of an ultrasonic energy emitter and an ultrasonic energy receiver into a longitudinal bore of a rotary drill bit (10, 100, 110); positioning the at least one of the ultrasonic energy emitter and the ultrasonic energy receiver at a predetermined selected location relative to the rotary drill bit (10, 100, 110) using at least one reference feature of the rotary drill bit (10, 100, 110); communicating ultrasonic waves into at least a portion of the rotary drill bit (10, 100, 110) from the ultrasonic energy emitter; detecting ultrasonic waves that are at least one of reflected and refracted by the at least a portion of the rotary drill bit (10, 100, 110) using the ultrasonic energy receiver; and generating a representation of at least a portion of the rotary drill bit (10, 100, 110) using the detected ultrasonic waves.
A cooler merchandiser, comprising: a housing having a display portion for displaying a product and a cooling portion configured to cool the product displayed in the display portion; characterized in that a frame is attached to the housing, the frame extending along at least a portion of the perimeter of a surface of the housing; and a first removable insert having a first graphics, the first removable insert capable of fitting within the frame, the first removable insert also capable of slidingly engaging with the frame, wherein the frame and a sidewall of the cooler merchandiser together form a channel configured to allow the first removable insert to slidingly engage the channel. a housing having a display portion for displaying a product and a cooling portion configured to cool the product displayed in the display portion; characterized in that a frame is attached to the housing, the frame extending along at least a portion of the perimeter of a surface of the housing; and a first removable insert having a first graphics, the first removable insert capable of fitting within the frame, the first removable insert also capable of slidingly engaging with the frame, wherein the frame and a sidewall of the cooler merchandiser together form a channel configured to allow the first removable insert to slidingly engage the channel.
A device for reducing noise in an electrocardiogram signal having successive repetitive ECG signal portions, comprising: an iterative averager operative to superimpose and average said repetitive ECG signal portions to produce a running average thereof, and an iteration ender comprising a noise analyzer for determining a noise level in said running average and ending operation of said iterative averager when said noise level reaches a predetermined level, wherein the device is characterized by further comprising an aligner for aligning at least some of said repetitive ECG signal portions one with another, wherein said signal comprises first frequency and second frequency components and said aligner comprises a first band pass filter which extracts a first frequency component and a second band pass filter which extracts a second frequency component wherein said aligner uses said first frequency components to locate an alignment point in successive ECG signal portions and said alignment point to align said second frequency components, wherein the device aligner aligns said second frequency components in said successive ECG signal portions before said iterative averager superimposes and averages them. an iterative averager operative to superimpose and average said repetitive ECG signal portions to produce a running average thereof, and an iteration ender comprising a noise analyzer for determining a noise level in said running average and ending operation of said iterative averager when said noise level reaches a predetermined level, wherein the device is characterized by further comprising an aligner for aligning at least some of said repetitive ECG signal portions one with another, wherein said signal comprises first frequency and second frequency components and said aligner comprises a first band pass filter which extracts a first frequency component and a second band pass filter which extracts a second frequency component wherein said aligner uses said first frequency components to locate an alignment point in successive ECG signal portions and said alignment point to align said second frequency components, wherein the device aligner aligns said second frequency components in said successive ECG signal portions before said iterative averager superimposes and averages them.
A method for allocation wireless resources in a wireless local area network, LAN, the method comprising: allocating, by an access point, AP,, a plurality of resource units for a plurality of stations, STAs, wherein the resource units have different sizes, within an entire bandwidth which is 20 MHz, 40 MHz, or 80 MHz, wherein the plurality of resource units are allocated based on Orthogonal Frequency Division Multiple Access, OFDMA; and transmitting, by the AP, a physical protocol data unit, PPDU, through the plurality of resource units to the plurality of STAs, wherein, among the plurality of resource units, a basic tone unit, BTU, is set to 242 tones within a frequency axis and a small tone unit, STU, is set to a number of tones smaller than 242 tones within the frequency axis, wherein allocation location of the plurality of resource units is defined based on a signal field that is included in a PPDU header of the PPDU. allocating, by an access point, AP,, a plurality of resource units for a plurality of stations, STAs, wherein the resource units have different sizes, within an entire bandwidth which is 20 MHz, 40 MHz, or 80 MHz, wherein the plurality of resource units are allocated based on Orthogonal Frequency Division Multiple Access, OFDMA; and transmitting, by the AP, a physical protocol data unit, PPDU, through the plurality of resource units to the plurality of STAs, wherein, among the plurality of resource units, a basic tone unit, BTU, is set to 242 tones within a frequency axis and a small tone unit, STU, is set to a number of tones smaller than 242 tones within the frequency axis, wherein allocation location of the plurality of resource units is defined based on a signal field that is included in a PPDU header of the PPDU.
A method, comprising: receiving, by an apparatus (100,120,252,400), information on at least one radio interface capability (UE-CAP) of a mobile node (102,250); receiving, by the apparatus, a subscriber frequency band priority profile identifier (S-IND) from a core network node (130,150,254,256,258), the subscriber frequency band priority profile identifier being associated with a mobile subscriber of the mobile node; characterized by finding, in the apparatus, an entry from a frequency band priority data structure by using both the subscriber frequency band priority profile identifier and the at least one radio interface capability, wherein in the data structure first a selection is performed to a first pointer to a sub-tree assigned for the at least one radio interface capability, and subsequently a second pointer is selected corresponding to the subscriber frequency band priority profile identifier, the second pointer pointing to a field storing the at least one frequency band priority; obtaining, in the apparatus, at least one frequency band priority from the entry; and using, in the apparatus, the at least one frequency band priority to control at least one of target cell and frequency band selection of the mobile node. receiving, by an apparatus (100,120,252,400), information on at least one radio interface capability (UE-CAP) of a mobile node (102,250); receiving, by the apparatus, a subscriber frequency band priority profile identifier (S-IND) from a core network node (130,150,254,256,258), the subscriber frequency band priority profile identifier being associated with a mobile subscriber of the mobile node; characterized by finding, in the apparatus, an entry from a frequency band priority data structure by using both the subscriber frequency band priority profile identifier and the at least one radio interface capability, wherein in the data structure first a selection is performed to a first pointer to a sub-tree assigned for the at least one radio interface capability, and subsequently a second pointer is selected corresponding to the subscriber frequency band priority profile identifier, the second pointer pointing to a field storing the at least one frequency band priority; obtaining, in the apparatus, at least one frequency band priority from the entry; and using, in the apparatus, the at least one frequency band priority to control at least one of target cell and frequency band selection of the mobile node.
Sanitary insert part which forms a through-flow path, in which a functional unit is arranged, which has a through-flow component which comprises at least one through-flow opening, and wherein in the through-flow path at least one cover element is arranged, by means of which the at least one through-flow opening can be at least partially closed, wherein a temperature-sensitive drive unit is coupled to the at least one cover element and is used to be able to adjust the at least one cover element between a position opening the at least one through-flow opening and a position at least partially closing the at least one through-flow opening, wherein the at least one cover element is arranged to be adjustable transverse to an extension direction of the at least one through-flow opening, wherein the at least one cover element is formed on a cover component which is mounted to be displaceable and/or rotatable relative to the through-flow component, and wherein the cover component comprises at least one through-flow counterpart opening which forms a section of the through-flow path and/or is aligned with the at least one through-flow opening in the first position, characterised in that the at least one through-flow opening and the at least one through-flow counterpart opening form in the first position a bypass to a main flow path of the functional unit.
Method for producing a stator (100, 300, 400) for a synchronous permanent magnet machine, the method comprising: providing a teeth stack comprising several teeth, wherein the teeth are arranged in a radial direction forming the teeth stack as a circular structure, wherein the teeth each comprise a root end in a radially outward direction of the teeth stack and an inner end in a radially inward direction of the teeth stack and wherein each two adjacent teeth form a gap in-between and wherein the inner ends of the adjacent teeth are interconnected by means of salient bridges exceeding the inner ends of the teeth in the radially inward direction; - providing at least one coil (130, 430) in at least one of the gaps between adjacent teeth of the teeth stack; - arranging the teeth stack within a yoke stack (120, 320, 420) such that the root ends of the teeth are in mechanical contact with the yoke stack (120, 320, 420); - filling a sealing compound at least in the gaps between the teeth and to the inner ends of the teeth such that the sealing compound exceeds the inner ends of the teeth in the radially inward direction at least by the same amount as the salient bridges such as to form a solid unit from the teeth stack, the at least one coil and the yoke stack (120, 320, 420); - removing a part of the bridges at the inner end of the teeth such that the teeth stack has a predetermined diameter in the radially inward direction, wherein the step of removing a part of the bridges comprises removing a part of the sealing compound filled to the inner ends of the teeth. - providing at least one coil (130, 430) in at least one of the gaps between adjacent teeth of the teeth stack; - arranging the teeth stack within a yoke stack (120, 320, 420) such that the root ends of the teeth are in mechanical contact with the yoke stack (120, 320, 420); - filling a sealing compound at least in the gaps between the teeth and to the inner ends of the teeth such that the sealing compound exceeds the inner ends of the teeth in the radially inward direction at least by the same amount as the salient bridges such as to form a solid unit from the teeth stack, the at least one coil and the yoke stack (120, 320, 420); - removing a part of the bridges at the inner end of the teeth such that the teeth stack has a predetermined diameter in the radially inward direction, wherein the step of removing a part of the bridges comprises removing a part of the sealing compound filled to the inner ends of the teeth.
An actuator comprising: a coil, a first cooling plate and a second cooling plate, the cooling plates being configured to cool the coil, the first and second cooling plates being arranged at opposite sides of the coil to be in thermal contact with the coil, wherein the coil comprises a first coil part and a second coil part, the first coil part facing the first cooling plate and the second coil part facing the second cooling plate, the first and second coil parts being separated by a spacing there between, wherein the first cooling plate, the first coil part, the spacing, the second coil part and the second cooling plate form a stacked structure whereby the coil parts are arranged between the cooling plates and the spacing is arranged between the coil parts, characterized in that the actuator further comprises a filling element arranged in the spacing, the filling element to push the first coil part towards the first cooling plate and to push the second coil part towards the second cooling plate and the filling element comprising a resilient element arranged in a compressed state in the spacing, the resilient element being compressed in a direction perpendicular to planes of the cooling plates. a coil, a first cooling plate and a second cooling plate, the cooling plates being configured to cool the coil, the first and second cooling plates being arranged at opposite sides of the coil to be in thermal contact with the coil, wherein the coil comprises a first coil part and a second coil part, the first coil part facing the first cooling plate and the second coil part facing the second cooling plate, the first and second coil parts being separated by a spacing there between, wherein the first cooling plate, the first coil part, the spacing, the second coil part and the second cooling plate form a stacked structure whereby the coil parts are arranged between the cooling plates and the spacing is arranged between the coil parts, characterized in that the actuator further comprises a filling element arranged in the spacing, the filling element to push the first coil part towards the first cooling plate and to push the second coil part towards the second cooling plate and the filling element comprising a resilient element arranged in a compressed state in the spacing, the resilient element being compressed in a direction perpendicular to planes of the cooling plates.
A spot downlight apparatus, comprising: a power head connected to an external power source, the power head has a rotation structure; a tubular body (11, 8702) made of metal material, wherein the tubular body has a front opening and a back opening, the tubular body is fixed to the rotation structure so as to be manually rotated with respect to the power head; a back cover fixing to the back opening of the tubular body; a light source plate (821, 8706) mounted with a LED module; a heat sink (24, 823, 8709) with a platform holder and a sidewall, wherein the sidewall engages an inner surface of the tubular body; an insulation layer made of a heat conductive material for transmitting heat of the light source plate to the heat sink and then to the tubular body; and a lens module (33, 8711) with a top part and a bottom wall, the bottom wall enclosing the LED module, wherein the heat sink is fixed to the light source plate with two metal screws, characterized in that the light source plate has two opposite concave areas for fixing said two metal screws, and two fixing blocks enclosing said screws. a power head connected to an external power source, the power head has a rotation structure; a tubular body (11, 8702) made of metal material, wherein the tubular body has a front opening and a back opening, the tubular body is fixed to the rotation structure so as to be manually rotated with respect to the power head; a back cover fixing to the back opening of the tubular body; a light source plate (821, 8706) mounted with a LED module; a heat sink (24, 823, 8709) with a platform holder and a sidewall, wherein the sidewall engages an inner surface of the tubular body; an insulation layer made of a heat conductive material for transmitting heat of the light source plate to the heat sink and then to the tubular body; and a lens module (33, 8711) with a top part and a bottom wall, the bottom wall enclosing the LED module, wherein the heat sink is fixed to the light source plate with two metal screws, characterized in that the light source plate has two opposite concave areas for fixing said two metal screws, and two fixing blocks enclosing said screws.
A method of a terminal in a communication system, the method comprising: receiving, from a base station associated with a cell, a message including information related to at least one category according to a public land mobile network, PLMN, and parameter information related to an access barring corresponding to the at least one category according to the PLMN; identifying whether a PLMN for the terminal corresponds to the information on the at least one category according to the PLMN; and performing, if the PLMN for the terminal corresponds to the information on the at least one category according to the PLMN, an access barring based on an access barring time, the access barring time being identified based on the parameter information related to the access barring corresponding to the category according to the PLMN for the terminal. receiving, from a base station associated with a cell, a message including information related to at least one category according to a public land mobile network, PLMN, and parameter information related to an access barring corresponding to the at least one category according to the PLMN; identifying whether a PLMN for the terminal corresponds to the information on the at least one category according to the PLMN; and performing, if the PLMN for the terminal corresponds to the information on the at least one category according to the PLMN, an access barring based on an access barring time, the access barring time being identified based on the parameter information related to the access barring corresponding to the category according to the PLMN for the terminal.
An additive manufacturing system for printing a three-dimensional part (122, 222), the additive manufacturing system comprising: an imaging engine configured to develop imagined layers (128, 228) of a thermoplastic-based powder; a transfer medium (114, 214) configured to receive the imaged layers (128, 228) from the imaging engine; a heater (132, 232) configured to heat the imaged layers (128, 228) on the transfer medium (114, 214); a layer transfusion assembly (133, 233) comprising a movable build platform (118, 218) and a heatable roller (120, 220) located at a fixed location relative to the moveable build platform (118, 218), the roller (120, 220) being configured to transfuse the heated layers (132, 232) in a layer-by-layer manner onto the build platform (118, 218) at the roller (120, 220) as the platform (118, 218) moves in a direction substantially tangential to a surface of the roller (120, 220) during transfusion from the transfer medium (114, 214) to the build platform (118, 218); and one or more cooling units (142, 242) configured to actively cool the transfused layers (128, 228) to hold the printed three-dimensional part at about an average part temperature that is below a deformation temperature of the three-dimensional part (122, 222) during the printing of the three-dimensional part (122, 222), wherein the one or more cooling units (142, 242) are located downstream from the layer transfusion assembly (133, 233) in a direction of movement of the transfer medium (114, 224). an imaging engine configured to develop imagined layers (128, 228) of a thermoplastic-based powder; a transfer medium (114, 214) configured to receive the imaged layers (128, 228) from the imaging engine; a heater (132, 232) configured to heat the imaged layers (128, 228) on the transfer medium (114, 214); a layer transfusion assembly (133, 233) comprising a movable build platform (118, 218) and a heatable roller (120, 220) located at a fixed location relative to the moveable build platform (118, 218), the roller (120, 220) being configured to transfuse the heated layers (132, 232) in a layer-by-layer manner onto the build platform (118, 218) at the roller (120, 220) as the platform (118, 218) moves in a direction substantially tangential to a surface of the roller (120, 220) during transfusion from the transfer medium (114, 214) to the build platform (118, 218); and one or more cooling units (142, 242) configured to actively cool the transfused layers (128, 228) to hold the printed three-dimensional part at about an average part temperature that is below a deformation temperature of the three-dimensional part (122, 222) during the printing of the three-dimensional part (122, 222), wherein the one or more cooling units (142, 242) are located downstream from the layer transfusion assembly (133, 233) in a direction of movement of the transfer medium (114, 224).