mhurhangee/ep-ind-claims huggingface dataset:
Integrated sampling and dispensing device comprising: a flexible container having an open end for carrying out a reaction of interest with a specimen; a dropper having a rod longitudinally mounted therethrough, the rod having a first end being disposed inwardly of the container and a second end being disposed outwardly of the container and a collection member formed on an exterior surface of the rod adjacent to the first end or a capillary formed within the rod adjacent to the first end for collecting a specimen, a cavity defining the inner surface of the rod, characterized in that an opening is formed on the second end of the rod for dispensing the reaction product; the cavity extends from the opening; and a severing member is formed on the exterior surface of the rod where the cavity is formed, wherein the severing member is capable of being severed by the application of force against the severing member by which the cavity is exposed; wherein the severing member includes at least one groove having a cross-sectional shape so that shearing stress applied to the groove by pressing the container between the fingers of a user and at the same time bending the rod can sever the rod at the severing member, a sample removing vessel is disposed between the flexible container and the dropper, the sample removing vessel having a first side and a second side, the first side sealing the open end of the flexible container, the second side being removably connected to the dropper, and a hole therethrough for receiving the rod. a flexible container having an open end for carrying out a reaction of interest with a specimen; a dropper having a rod longitudinally mounted therethrough, the rod having a first end being disposed inwardly of the container and a second end being disposed outwardly of the container and a collection member formed on an exterior surface of the rod adjacent to the first end or a capillary formed within the rod adjacent to the first end for collecting a specimen, a cavity defining the inner surface of the rod, an opening is formed on the second end of the rod for dispensing the reaction product; the cavity extends from the opening; and a severing member is formed on the exterior surface of the rod where the cavity is formed, wherein the severing member is capable of being severed by the application of force against the severing member by which the cavity is exposed; wherein the severing member includes at least one groove having a cross-sectional shape so that shearing stress applied to the groove by pressing the container between the fingers of a user and at the same time bending the rod can sever the rod at the severing member, a sample removing vessel is disposed between the flexible container and the dropper, the sample removing vessel having a first side and a second side, the first side sealing the open end of the flexible container, the second side being removably connected to the dropper, and a hole therethrough for receiving the rod.
Graft element for joining together plant stem sections, the graft element being made of a resilient material and taking the form of a tubular structure having a hollow center that extends in a longitudinal direction of the graft element so as to form a cylinder, the graft element further comprising: - a side opening along its length which is connected to the hollow center over the entire length of the graft element; and - two elongated members at opposite sides of the side opening and oriented substantially parallel thereto, the elongated members being provided with cutouts; wherein the side opening is expandable under the influence of gripping units that fit into the cutouts. - a side opening along its length which is connected to the hollow center over the entire length of the graft element; and - two elongated members at opposite sides of the side opening and oriented substantially parallel thereto, the elongated members being provided with cutouts;
A method for stripe-based non-volatile multilevel memory operation, comprising: writing a plurality of lower stripes (544B-L, 544C-L) including programming a plurality of lower pages of information in each of the plurality of lower stripes (544B-L, 544C-L); and writing a plurality of upper stripes (544B-U, 544C-U) including programming a plurality of upper pages of the information in each upper stripe (544B-U, 544C-U), wherein each of the plurality of upper pages (426, 514B, 514C) in a particular one of the plurality of upper stripes corresponds to a respective lower page (424, 512B, 512C) in a different one of the plurality of lower stripes (544B-L, 544C-L). writing a plurality of lower stripes (544B-L, 544C-L) including programming a plurality of lower pages of information in each of the plurality of lower stripes (544B-L, 544C-L); and writing a plurality of upper stripes (544B-U, 544C-U) including programming a plurality of upper pages of the information in each upper stripe (544B-U, 544C-U), wherein each of the plurality of upper pages (426, 514B, 514C) in a particular one of the plurality of upper stripes corresponds to a respective lower page (424, 512B, 512C) in a different one of the plurality of lower stripes (544B-L, 544C-L).
An article of footwear having an upper and a sole structure secured to the upper, the sole structure incorporating a fluid-filled chamber (33; 133) comprising: a barrier (40; 140) formed from a polymer material that defines an interior void; a stacked tensile member (50; 150) located within the interior void, the stacked tensile member including a first spacer textile (52; 152) and a second spacer textile (51; 151) that are joined to each other, opposite sides of the stacked tensile member being joined to the barrier; and a fluid located within the interior void, the fluid being pressurized to place an outward force upon the barrier and induce tension in the stacked tensile member. a barrier (40; 140) formed from a polymer material that defines an interior void; a stacked tensile member (50; 150) located within the interior void, the stacked tensile member including a first spacer textile (52; 152) and a second spacer textile (51; 151) that are joined to each other, opposite sides of the stacked tensile member being joined to the barrier; and a fluid located within the interior void, the fluid being pressurized to place an outward force upon the barrier and induce tension in the stacked tensile member.
A method comprising: receiving microseismic data of microseismic events as acquired by sensors during hydraulic fracturing of a geologic region; jointly calibrating sensor orientation of the sensors and a velocity model of the geologic region via an objective function and the microseismic data, and based at least in part on the jointly calibrating, adjusting an orientation of at least one of the sensors; and based at least in part on the jointly calibrating and the adjusted orientation of at least one of the sensors, determining one or more locations of the one or more microseismic events. receiving microseismic data of microseismic events as acquired by sensors during hydraulic fracturing of a geologic region; jointly calibrating sensor orientation of the sensors and a velocity model of the geologic region via an objective function and the microseismic data, and based at least in part on the jointly calibrating, adjusting an orientation of at least one of the sensors; and based at least in part on the jointly calibrating and the adjusted orientation of at least one of the sensors, determining one or more locations of the one or more microseismic events.
A method implemented on a portable device to access remote documents, the method comprising: sending from the device to a remote server a request for a document, the document including graphics and text; receiving at the device from the remote server a first portion of an image in a compressed format, the first portion of the image having been rendered at the remote server from the document including the graphics and the text, the area of the image larger than a displayable area of the device; displaying the first portion of the image on the device receiving input at the device indicating a user of the device is scrolling the first portion of the image; sending a message to the remote server indicating a scrolled to area of the image; and receiving at the device from the remote server a second portion (8, 9, 10) of the image in a compressed format, the second portion (8, 9, 10) of the image having been rendered at the remote server from the document including the graphics and the text; characterised in that the method further comprises: subsequent to the receiving of the second portion (8, 9, 10) of the image and in response to the sending of the message, receiving at the device additional portions (8, 9, 10) of the image that surround the second portion (8, 9, 10) of the image. sending from the device to a remote server a request for a document, the document including graphics and text; receiving at the device from the remote server a first portion of an image in a compressed format, the first portion of the image having been rendered at the remote server from the document including the graphics and the text, the area of the image larger than a displayable area of the device; displaying the first portion of the image on the device receiving input at the device indicating a user of the device is scrolling the first portion of the image; sending a message to the remote server indicating a scrolled to area of the image; and receiving at the device from the remote server a second portion (8, 9, 10) of the image in a compressed format, the second portion (8, 9, 10) of the image having been rendered at the remote server from the document including the graphics and the text; characterised in that the method further comprises: subsequent to the receiving of the second portion (8, 9, 10) of the image and in response to the sending of the message, receiving at the device additional portions (8, 9, 10) of the image that surround the second portion (8, 9, 10) of the image. subsequent to the receiving of the second portion (8, 9, 10) of the image and in response to the sending of the message, receiving at the device additional portions (8, 9, 10) of the image that surround the second portion (8, 9, 10) of the image.
A transmitter for a communication system, the transmitter comprising: a sidelobe suppression module configured to form a sidelobe suppressed vector by applying a suppression matrix to an input vector, wherein the sidelobe suppression module is further configured to set a predetermined reserved subset of symbols of the input vector to zero, the size of the reserved subset being greater than or equal to a number of suppression distances; a modulation module configured to modulate the sidelobe suppressed vector to a time-domain symbol using a plurality of subcarriers, each symbol in the sidelobe suppressed vector having a corresponding subcarrier; and a digital-to-analog conversion module configured to convert the time-domain symbol to an analog waveform for transmission, wherein the suppression matrix is constructed such that emissions at one or more predetermined suppression distances lying outside a frequency band defined by the subcarriers are set to zero according to a predetermined emission model. a sidelobe suppression module configured to form a sidelobe suppressed vector by applying a suppression matrix to an input vector, wherein the sidelobe suppression module is further configured to set a predetermined reserved subset of symbols of the input vector to zero, the size of the reserved subset being greater than or equal to a number of suppression distances; a modulation module configured to modulate the sidelobe suppressed vector to a time-domain symbol using a plurality of subcarriers, each symbol in the sidelobe suppressed vector having a corresponding subcarrier; and a digital-to-analog conversion module configured to convert the time-domain symbol to an analog waveform for transmission,
Conveying device for a linear transport system, - wherein the conveying device comprises at least one rolling unit (85, 90), a magnet arrangement and a carrier unit, - wherein the carrier unit is of U-shaped configuration and on the outside has an outer side and on the inside has an inner side, - wherein the inner side bounds a receiving space for receiving a running rail of the linear transport system, - wherein the rolling unit (85, 90) is arranged in the receiving space in a manner spaced apart from the inner side, - wherein the inner side and/or the outer side are/is of substantially smooth configuration, - wherein the carrier unit has a receptacle, - wherein a magnet arrangement portion of the magnet arrangement is arranged in the receptacle, - characterized in that - the receptacle is closed on a side facing a drive module (25, 30) of the linear transport system by means of a further closure element, which is connected in an integrally bonded manner to the carrier unit, in such a manner that an ingress of moisture into the magnet arrangement portion of the magnet arrangement is avoided, - wherein the further closure element is of thin-walled configuration, preferably in the manner of a film, and has a thickness lying within a range of 0.1 mm to 0.8 mm, - wherein the further closure element covers the magnet arrangement, - wherein a material of the further closure element is selected in such a manner that a magnetic moving field and the magnet arrangement portion can interact to drive the conveying device. - wherein the conveying device comprises at least one rolling unit (85, 90), a magnet arrangement and a carrier unit, - wherein the carrier unit is of U-shaped configuration and on the outside has an outer side and on the inside has an inner side, - wherein the inner side bounds a receiving space for receiving a running rail of the linear transport system, - wherein the rolling unit (85, 90) is arranged in the receiving space in a manner spaced apart from the inner side, - wherein the inner side and/or the outer side are/is of substantially smooth configuration, - wherein the carrier unit has a receptacle, - wherein a magnet arrangement portion of the magnet arrangement is arranged in the receptacle, - characterized in that - the receptacle is closed on a side facing a drive module (25, 30) of the linear transport system by means of a further closure element, which is connected in an integrally bonded manner to the carrier unit, in such a manner that an ingress of moisture into the magnet arrangement portion of the magnet arrangement is avoided, - wherein the further closure element is of thin-walled configuration, preferably in the manner of a film, and has a thickness lying within a range of 0.1 mm to 0.8 mm, - wherein the further closure element covers the magnet arrangement, - wherein a material of the further closure element is selected in such a manner that a magnetic moving field and the magnet arrangement portion can interact to drive the conveying device.
Method for machining the edges of plate-shaped workpieces wherein the workpieces are supplied in a conveying circuit, moved repeatedly along a machining stretch for machining the edges of the workpieces, and are removed from the conveying circuit once machining has taken place, wherein the dimensions of the workpieces are detected before being supplied into the conveying circuit and the sequence in which the workpieces are supplied to the conveying circuit is determined in dependence on the detected dimensions of the workpieces, characterised in that the workpieces are assembled in groups corresponding to the established sequence and are supplied in groups to the conveying circuit, wherein the workpieces are assembled so that the dimensions which are relevant for the capacity in the conveying circuit are constant where possible in the middle of the respective group by minimizing the fluctuation of the dimensions from group middle to group middle.
A method for manufacturing a handle comprising: manufacturing a surface portion (1, 1') for the handle (10, 10'), characterized in that the method comprises arranging the manufactured surface portion (1, 1') having a uniform thickness in a mould to contact a surface of the mould and to cover cavities which are provided in the surface in a predetermined pattern, pressing those parts of the surface portion (1, 1') that cover the cavities into the cavities with a mass that is introduced into the mould, and removing the handle (10, 10') from the mould once the mass has cured to form a rigid body (11, 11') which is at least partly covered by the surface portion (1, 1') from which protrusions (13, 13') arranged in the predetermined pattern (15, 15') protrude. manufacturing a surface portion (1, 1') for the handle (10, 10'), characterized in that the method comprises arranging the manufactured surface portion (1, 1') having a uniform thickness in a mould to contact a surface of the mould and to cover cavities which are provided in the surface in a predetermined pattern, pressing those parts of the surface portion (1, 1') that cover the cavities into the cavities with a mass that is introduced into the mould, and removing the handle (10, 10') from the mould once the mass has cured to form a rigid body (11, 11') which is at least partly covered by the surface portion (1, 1') from which protrusions (13, 13') arranged in the predetermined pattern (15, 15') protrude.
A method of manufacturing a wind turbine blade, the method comprising, wrapping an exterior surface of a mandrel with a thermoplastic composite material; and consolidating the thermoplastic composite material using at least one susceptor sheet (24, 26); wherein the mandrel is a segmented mandrel comprising a plurality of segments (31a - 31d), each having its own cross-sectional profile, and wherein each of the mandrel segments (31a - 31d) are individually wrapped with said thermoplastic composite material and consolidated.
A method for producing a magnetic core for an antenna wherein thin metal strips having a thickness of 5-100 μm are stacked, comprising the steps of: processing a thin metal band having a thickness of 5-100 μm into the thin strips having a width of the aimed magnetic core; stacking the thin strips through a resin layer to form a laminate; providing the laminate with magnetic anisotropy along a width direction of the laminate, and then, cutting the laminate along the width direction thereof to have a length of the aimed magnetic core. processing a thin metal band having a thickness of 5-100 μm into the thin strips having a width of the aimed magnetic core; stacking the thin strips through a resin layer to form a laminate; providing the laminate with magnetic anisotropy along a width direction of the laminate, and then, cutting the laminate along the width direction thereof to have a length of the aimed magnetic core.
Automatic laser ablation and welding installation for joining at least two workpieces (50, 51, 80, 81), in particular two metal sheets, wherein the ablation and welding installation comprises at least one clamping unit, a first positioning station, an ablation station (II, 13), a second positioning station and a welding station, wherein the at least two workpieces (50, 51, 80, 81) are ablated, joined and welded in a single clamping unit, characterized in that the ablation station (II, 13) has a first laser head and a second laser head which are arranged such that the two workpieces (80, 81) oriented in an ablation position can be machined at their joining edges (82, 83) from their top side by means of the first laser head and from their bottom side by means of the second laser head, and here, the laser heads (84, 85) run along the contour of the joining edges (82, 83) so as to follow one another along a path, such that the ablation step is performed without the laser heads (84, 85) being situated opposite one another at a machining time.
A method of transmitting a demodulation reference signal, DMRS, for a physical uplink shared channel, PUSCH, using a plurality of layers consisting in first, second, and third layers, in a wireless communication system, the method comprising: generating first, second, and third DMRS sequences associated with the first, second, and third layers respectively, wherein first, second, and third cyclic shifts are allocated to the first, second, and third DMRS sequences respectively; mapping the first, second, and third DMRS sequences to resource elements, REs; and transmitting the first, second, and third DMRS sequences to a base station, wherein the first, second, and third cyclic shifts are respectively determined based on a first, second and third cyclic shift values, which are indicated by a cyclic shift field in downlink control information, DCI, received through a physical downlink control channel, PDCCH, wherein the first and second cyclic shift values are separated by a maximum separation value, the maximum separation value corresponding to a total number of cyclic shifts and being determined for transmission of DMRS signal in the wireless communication system using four layers, wherein the first, second, and third cyclic shift values are represented by the below table: Z λ = 0 λ = 1 λ = 2 000 0 6 3 001 6 0 9 010 3 9 6 011 4 10 7 100 2 8 5 101 8 2 11 110 10 4 1 111 9 3 0, wherein Z is the cyclic shift field in the DCI received through the PDCCH. generating first, second, and third DMRS sequences associated with the first, second, and third layers respectively, wherein first, second, and third cyclic shifts are allocated to the first, second, and third DMRS sequences respectively; mapping the first, second, and third DMRS sequences to resource elements, REs; and transmitting the first, second, and third DMRS sequences to a base station,
A network device comprising: a rack assembly having side walls forming an enclosure, with a plurality of sled slots accessible from a rear end; a plurality of operation sleds (122, 124, 126, 128), each being mountable on one of the plurality of sled slots, and each comprising: a casing including side walls defining a front section and a rear section; a circuit board in the rear section; a fan mounting bay in the front section; and a removable fan module inserted in the fan mounting bay, the removable fan module including a motor and a fan; wherein the circuit board has a plurality of connectors exposed out of the casing through the rear section, and the network device further comprises a front assembly attached to one of the side walls of the rack assembly that is opposite to the rear end, the front assembly including electronic components that are electrically connected to the connectors of the circuit board. a rack assembly having side walls forming an enclosure, with a plurality of sled slots accessible from a rear end; a plurality of operation sleds (122, 124, 126, 128), each being mountable on one of the plurality of sled slots, and each comprising: a casing including side walls defining a front section and a rear section; a circuit board in the rear section; a fan mounting bay in the front section; and a removable fan module inserted in the fan mounting bay, the removable fan module including a motor and a fan; wherein the circuit board has a plurality of connectors exposed out of the casing through the rear section, and the network device further comprises a front assembly attached to one of the side walls of the rack assembly that is opposite to the rear end, the front assembly including electronic components that are electrically connected to the connectors of the circuit board. a casing including side walls defining a front section and a rear section; a circuit board in the rear section; a fan mounting bay in the front section; and a removable fan module inserted in the fan mounting bay, the removable fan module including a motor and a fan; wherein the circuit board has a plurality of connectors exposed out of the casing through the rear section, and the network device further comprises a front assembly attached to one of the side walls of the rack assembly that is opposite to the rear end, the front assembly including electronic components that are electrically connected to the connectors of the circuit board.