mhurhangee/ep-ind-claims huggingface dataset:
Torsionally flexible coupling, comprising an inner part having a rotating shaft, an outer part extending around the inner part and arranged coaxially with it, and a plurality of spring elements or spring packs which are arranged between the inner part and the outer part and are spaced in circumferential direction, wherein each spring element or spring pack is clamped at a radially outer end thereof in a clamping support on the outer part, and at a radial inner end thereof is flexibly engaged with a corresponding groove on the inner part, characterised in that in position of rest of the torsionally flexible coupling the spring elements or spring packs are angled relative to a radial direction passing through the respective clamping support and the axis of rotation of the inner part by an angle (α) and are all inclined against the main direction of rotation of the coupling.
Transmitter housing of an operating device for devices and systems, such as in particular remote-controlled mobile industrial or commercial devices and systems, comprising two housing parts, which are produced by a first profile element and a second profile element, which each have a main wall, from the side edges of which a first side wall and a second side wall extend away, and are assembled to form a housing wall which surrounds a receiver, wherein at least one operating element is attached to the outer side of the housing wall and a control electronics is accommodated in the receiver, wherein the first side wall of the first profile element can be fixed to the second side wall of the second profile element and the second side wall of the first profile element can be fixed to the first side wall of the second profile element via a latching element with the interposition of a sealing element, and the sealing element forms an elastic means of the latching arrangement, wherein the respective first side wall of the profile elements (26, 28) forms at a first free end a receiving profile, which is opened in the direction away from the main wall, while the respective second side wall of the profile elements (26, 28) forms at a second free end an engagement profile of the latching arrangement, which can be introduced into the receiving profile of the respective other profile element (28, 26) and a seal receiving groove, which is opened transversely to the direction of extension of the second side wall, is formed on the engagement profile. comprising two housing parts, which are produced by a first profile element and a second profile element, which each have a main wall, from the side edges of which a first side wall and a second side wall extend away, and are assembled to form a housing wall which surrounds a receiver, wherein at least one operating element is attached to the outer side of the housing wall and a control electronics is accommodated in the receiver, wherein the first side wall of the first profile element can be fixed to the second side wall of the second profile element and the second side wall of the first profile element can be fixed to the first side wall of the second profile element via a latching element with the interposition of a sealing element, and the sealing element forms an elastic means of the latching arrangement, wherein the respective first side wall of the profile elements (26, 28) forms at a first free end a receiving profile, which is opened in the direction away from the main wall, while the respective second side wall of the profile elements (26, 28) forms at a second free end an engagement profile of the latching arrangement, which can be introduced into the receiving profile of the respective other profile element (28, 26) and a seal receiving groove, which is opened transversely to the direction of extension of the second side wall, is formed on the engagement profile.
A rifle comprising: i) a main body, fixed, comprising a barrel which extends along an axis (X-X), a receiver comprising an upper opening, a breech element positioned at an axial end of said upper opening; ii) a trigger group at least partially housed in the receiver comprising a trigger and a hammer device operable by the trigger; iii) a carriage assembly, comprising an assembly body and a shutter group at least partially housed in said assembly body, wherein the carriage assembly is positioned on the receiver at the upper opening and is axially movable by the user between an advanced shooting configuration, in which the shutter group engages the breech element, and a retracted rearming configuration, in which the upper opening is open and the shutter group is spaced apart from the breech element, and vice versa; wherein, upon the axial movement of the carriage assembly between the retracted configuration and the advanced configuration, the shutter group is first moved axially on translation and then is moved in roto-translation; wherein the shutter group comprises a central body extending axially and a command pin protruding radially from said shutter body, wherein said command pin engages the assembly body so that said reciprocal interaction drives the shutter group in rotation; wherein the rifle is characterized by the fact that the command pin is movable between a raised position and a lowered position, in which, in said raised position, the command pin prevents the relative movement of the shutter group with respect to the assembly body. i) a main body, fixed, comprising a barrel which extends along an axis (X-X), a receiver comprising an upper opening, a breech element positioned at an axial end of said upper opening; ii) a trigger group at least partially housed in the receiver comprising a trigger and a hammer device operable by the trigger; iii) a carriage assembly, comprising an assembly body and a shutter group at least partially housed in said assembly body, wherein the carriage assembly is positioned on the receiver at the upper opening and is axially movable by the user between an advanced shooting configuration, in which the shutter group engages the breech element, and a retracted rearming configuration, in which the upper opening is open and the shutter group is spaced apart from the breech element, and vice versa; wherein, upon the axial movement of the carriage assembly between the retracted configuration and the advanced configuration, the shutter group is first moved axially on translation and then is moved in roto-translation; wherein the shutter group comprises a central body extending axially and a command pin protruding radially from said shutter body, wherein said command pin engages the assembly body so that said reciprocal interaction drives the shutter group in rotation; wherein the rifle is characterized by the fact that the command pin is movable between a raised position and a lowered position, in which, in said raised position, the command pin prevents the relative movement of the shutter group with respect to the assembly body.
A method for registering three-dimensional CT image data with two-dimensional fluoroscopic image data using a plurality of markers, the method comprising: searching for a lateral angle and a cranial angle; moving a 3D mass center of a marker to a half segment between a source and a 2D mass center of the marker; computing a roll angle; computing 3D translation coordinates, wherein computing the 3D translation coordinates includes obtaining a parallel translation and obtaining a perpendicular translation; computing the roll angle and the 3D translation coordinates for a predetermined number of times successively; and overlaying the 3D CT image data on the 2D fluoroscopic image data based on the lateral angle, the cranial angle, the roll angle, and the 3D translation coordinates. searching for a lateral angle and a cranial angle; moving a 3D mass center of a marker to a half segment between a source and a 2D mass center of the marker; computing a roll angle; computing 3D translation coordinates, wherein computing the 3D translation coordinates includes obtaining a parallel translation and obtaining a perpendicular translation; computing the roll angle and the 3D translation coordinates for a predetermined number of times successively; and overlaying the 3D CT image data on the 2D fluoroscopic image data based on the lateral angle, the cranial angle, the roll angle, and the 3D translation coordinates.
A method to transmit data over a wireless network, comprising: determining tones for data transmission from a resource allocation, wherein determining tones for data transmission comprises: determining overhead tones from the resource allocation, and excluding the overhead tones for data transmission; selecting an interleaver based on the tones, wherein the interleaver comprises a block interleaver having a null bit in place of each of the excluded overhead tones; and generating interleaved data according to the interleaver using at least one of the tones. determining tones for data transmission from a resource allocation, wherein determining tones for data transmission comprises: determining overhead tones from the resource allocation, and excluding the overhead tones for data transmission; determining overhead tones from the resource allocation, and excluding the overhead tones for data transmission; selecting an interleaver based on the tones, wherein the interleaver comprises a block interleaver having a null bit in place of each of the excluded overhead tones; and generating interleaved data according to the interleaver using at least one of the tones.
An electronic pill for monitoring medication compliance in a patient comprising: a drug-transporting device; and an antenna adapted for detection of presence of the pill in the gastrointestinal tract of the patient by a detecting device positionable external the patient gastrointestinal tract, characterised in that the antenna is positioned on an outer surface of the drug-transporting device, and in that the antenna is printed on a flexible substrate wrapped around the drug-transporting device. a drug-transporting device; and an antenna adapted for detection of presence of the pill in the gastrointestinal tract of the patient by a detecting device positionable external the patient gastrointestinal tract, characterised in that the antenna is positioned on an outer surface of the drug-transporting device, and in that the antenna is printed on a flexible substrate wrapped around the drug-transporting device.
A benefit agent delivery system comprising: a conductive layer; a microcell layer comprising a plurality of microcells (130A, 130B), wherein each microcell includes an opening, and wherein a medium comprising a carrier and a benefit agent is contained in the plurality of microcells; a sealing layer spanning the opening of each microcell and comprising a polymeric material and a metallic materia; and an electrode layer; wherein the conductive layer, the microcell layer, the sealing layer and the electrode layer are vertically stacked upon each other; and wherein the microcell layer and the sealing layer are disposed between the conductive layer and the electrode layer. a conductive layer; a microcell layer comprising a plurality of microcells (130A, 130B), wherein each microcell includes an opening, and wherein a medium comprising a carrier and a benefit agent is contained in the plurality of microcells; a sealing layer spanning the opening of each microcell and comprising a polymeric material and a metallic materia; and an electrode layer; wherein the conductive layer, the microcell layer, the sealing layer and the electrode layer are vertically stacked upon each other; and wherein the microcell layer and the sealing layer are disposed between the conductive layer and the electrode layer.
A select device (100, 200, 300, 400-1, 400-2, 400-3,..., 400-N), comprising: a semiconductive stack including at least one semiconductive material (207, 209, 311, 313, 315) on a first electrode (101, 201, 301), wherein the semiconductive stack has a thickness of 70 nm (700 Ängstroms) or less, and wherein each of the at least one semiconductive material (207, 209, 311, 313, 315) has an associated band gap of 4 electron volts or less, and wherein the at least one semiconductive material comprises: a first partially nanocrystallized semiconductive material; an amorphous semiconductive material on the first partially nanocrystallized semiconductive material; and a second partially nanocrystallized semiconductive material on the amorphous semiconductive material; and a second electrode (103, 203, 303) formed on the semiconductive stack. a semiconductive stack including at least one semiconductive material (207, 209, 311, 313, 315) on a first electrode (101, 201, 301), wherein the semiconductive stack has a thickness of 70 nm (700 Ängstroms) or less, and wherein each of the at least one semiconductive material (207, 209, 311, 313, 315) has an associated band gap of 4 electron volts or less, and wherein the at least one semiconductive material comprises: a first partially nanocrystallized semiconductive material; an amorphous semiconductive material on the first partially nanocrystallized semiconductive material; and a second partially nanocrystallized semiconductive material on the amorphous semiconductive material; and a first partially nanocrystallized semiconductive material; an amorphous semiconductive material on the first partially nanocrystallized semiconductive material; and a second partially nanocrystallized semiconductive material on the amorphous semiconductive material; and a second electrode (103, 203, 303) formed on the semiconductive stack.
An article of footwear having an upper and a sole structure secured to the upper, the sole structure incorporating a support element comprising: a sealed fluid-filled chamber formed of a polymer material and defining a first surface, an opposite second surface, and a sidewall extending between the first surface and the second surface; a first insert secured to the first surface and at least partially recessed into the polymer material of the chamber; and a second insert secured to the second surface, and wherein the chamber is pressurized to deform at least one of the first insert and the second insert. a sealed fluid-filled chamber formed of a polymer material and defining a first surface, an opposite second surface, and a sidewall extending between the first surface and the second surface; a first insert secured to the first surface and at least partially recessed into the polymer material of the chamber; and a second insert secured to the second surface, and wherein the chamber is pressurized to deform at least one of the first insert and the second insert.
Breakdown assistance system for sealing and inflating motor vehicle tyres, wherein the breakdown assistance system comprises the following means: - a pressurized gas source, preferably a compressor, - a container for a self-acting sealant which can be introduced into the motor vehicle tyre, wherein the container has a container opening situated at its upper end, - a distributor unit, which is connected to the container, for sealant and pressurized gas, wherein the distributor unit is designed as a cover for the container opening and is equipped with an inlet line, which is connectable to the pressurized gas source, and with an outlet line, which is connectable to the motor vehicle tyre, - and wherein the inlet line has an inlet valve with an inlet valve body, wherein the outlet line has, at its tyre-side end, an outlet valve which opens as a result of connection to a tyre valve, - wherein the inlet valve opens the inlet channel as soon as the pressure effected by the pressure source is higher than the pressure within the container or the sealant bottle, characterized in that, in the event of an increase, taking place via the outlet valve, of the internal pressure in the container, the inlet valve closes the container at the compressor side by virtue of the inlet valve body being pressed with a closing action onto its sealing seat. - a pressurized gas source, preferably a compressor, - a container for a self-acting sealant which can be introduced into the motor vehicle tyre, wherein the container has a container opening situated at its upper end, - a distributor unit, which is connected to the container, for sealant and pressurized gas, wherein the distributor unit is designed as a cover for the container opening and is equipped with an inlet line, which is connectable to the pressurized gas source, and with an outlet line, which is connectable to the motor vehicle tyre, - and wherein the inlet line has an inlet valve with an inlet valve body, wherein the outlet line has, at its tyre-side end, an outlet valve which opens as a result of connection to a tyre valve, - wherein the inlet valve opens the inlet channel as soon as the pressure effected by the pressure source is higher than the pressure within the container or the sealant bottle,
Single pole electrical connector (10, 10', 10", 10"', 10"") with hermaphrodite contact elements (30, 40, 30"', 40"') for connecting electrically printed circuit boards, in particular for connecting LED printed circuit boards, comprising: a base section with a connecting zone for connecting with a printed circuit board, a first contact arm (30, 30"') and a second contact arm (40, 40"'), which are arranged on the base section and substantially extend parallel to one another away from the base section, in which the first contact arm (30, 30"'), on its inner side directed towards the second contact arm (40, 40"'), forms a contact surface of the first contact arm, and the second contact arm (40, 40"') has a tilted section that runs from the base section in the direction of the first contact arm (30, 30"'), which a section running parallel to the first contact arm (30, 30"') joins, the section forming a contact surface of the second contact arm (40, 40"'), and in which in the connected condition of two electrical connectors (10, 10', 10", 10"', 10"") the respective second contact arm (40, 40"') of an electrical connector (10, 10', 10", 10"', 10"") is wedgeable between the first (30, 30"') and the second contact arm (40, 40"') of the respective other electrical connector (10, 10', 10", 10"', 10"").
A method of decoding implemented by a video decoder, comprising: receiving, by the video decoder, a video bitstream including a video parameter set, VPS, specifying one or more output layer sets, OLSs, and including a syntax element LayerIdInOls[ i][ j] and a plurality of layers, wherein for each layer with a value of nuh_layer_id nuhLayerId, equal to one of vps_layer_id[ k] for k in the range of 0 to vps_max_layers_minus1, the vps_layer_id[ k] specifies the value of nuh_layer_id of the k-th layer, the vps_max_layers_minus1 plus 1 specifies the maximum allowed number of layers in each coded video sequence, CVS, referring to the VPS; decoding a value of LayerIdInOls[ i][ j] equal to nuhLayerId, wherein i is in the range of 0 to TotalNumOlss - 1 and j is in the range of 0 to NumLayersInOls[ i] - 1, wherein the TotalNumOlss specifies the total number of OLSs specified by the VPS, the NumLayersInOls[ i] specifies the number of layers in the i-th OLS, the LayerIdInOls[ i][ j] specifies the value of nuh_layer_ id of the j-th layer in the i-th OLS; and decoding, by the video decoder, a picture from one of the plurality of layers. receiving, by the video decoder, a video bitstream including a video parameter set, VPS, specifying one or more output layer sets, OLSs, and including a syntax element LayerIdInOls[ i][ j] and a plurality of layers, wherein for each layer with a value of nuh_layer_id nuhLayerId, equal to one of vps_layer_id[ k] for k in the range of 0 to vps_max_layers_minus1, the vps_layer_id[ k] specifies the value of nuh_layer_id of the k-th layer, the vps_max_layers_minus1 plus 1 specifies the maximum allowed number of layers in each coded video sequence, CVS, referring to the VPS; decoding a value of LayerIdInOls[ i][ j] equal to nuhLayerId, wherein i is in the range of 0 to TotalNumOlss - 1 and j is in the range of 0 to NumLayersInOls[ i] - 1, wherein the TotalNumOlss specifies the total number of OLSs specified by the VPS, the NumLayersInOls[ i] specifies the number of layers in the i-th OLS, the LayerIdInOls[ i][ j] specifies the value of nuh_layer_ id of the j-th layer in the i-th OLS; and decoding, by the video decoder, a picture from one of the plurality of layers.
An ultrasonic imaging apparatus, comprising: an ultrasonic probe configured to irradiate a push pulse to generate a shear wave to an object, irradiate a first observation signal to the object after the push pulse is irradiated, and irradiate a second observation signal to the object before the push pulse is irradiated or after the first observation signal is irradiated; a controller configured to determine an inefficiency region of the object based on displacement data for each region of the object obtained from the irradiated second observation signal, and generate a shear wave elastic image based on the determined inefficiency region and displacement data for each region of the object obtained from the irradiated first observation signal; and a display configured to display the generated shear wave elastic image, wherein the second observation signal is irradiated for a time more than 10 milliseconds and shorter than a time than the first observation signal, wherein the first observation signal and the second observation signal include a plurality of ultrasound signals having a predetermined time interval, wherein a time interval of each of the plurality of ultrasound signals included in the second observation signal is less than or equal to 500 microseconds and longer than a time interval of each of the plurality of ultrasound signals included in the first observation signal. an ultrasonic probe configured to irradiate a push pulse to generate a shear wave to an object, irradiate a first observation signal to the object after the push pulse is irradiated, and irradiate a second observation signal to the object before the push pulse is irradiated or after the first observation signal is irradiated; a controller configured to determine an inefficiency region of the object based on displacement data for each region of the object obtained from the irradiated second observation signal, and generate a shear wave elastic image based on the determined inefficiency region and displacement data for each region of the object obtained from the irradiated first observation signal; and a display configured to display the generated shear wave elastic image, wherein the second observation signal is irradiated for a time more than 10 milliseconds and shorter than a time than the first observation signal, wherein the first observation signal and the second observation signal include a plurality of ultrasound signals having a predetermined time interval, wherein a time interval of each of the plurality of ultrasound signals included in the second observation signal is less than or equal to 500 microseconds and longer than a time interval of each of the plurality of ultrasound signals included in the first observation signal.