mhurhangee/patent-ind-claim-en huggingface dataset:
A puncture injection instrument comprising: a hollow needle body having one or more projections on a first surface of a substrate , each of the projections being formed with a through hole penetrating from a distal end side of the projection to a second surface of the substrate , the second surface being opposite to the first surface; and an ultrasound probe or an optical coherence tomography probe , wherein the ultrasound probe or the optical coherence tomography probe is arranged outside a region in which the one or more projections are formed, and the ultrasound probe or the optical coherence tomography probe is supported by a holder , characterized in that the ultrasound probe or the optical coherence tomography probe is arranged so as to be capable of detecting an object in a direction along a protruding direction of the projections , wherein the detecting direction of the ultrasound probe or the optical coherence tomography probe and the protruding direction of the projections are parallel to each other. a hollow needle body having one or more projections on a first surface of a substrate , each of the projections being formed with a through hole penetrating from a distal end side of the projection to a second surface of the substrate , the second surface being opposite to the first surface; and an ultrasound probe or an optical coherence tomography probe , wherein the ultrasound probe or the optical coherence tomography probe is arranged outside a region in which the one or more projections are formed, and the ultrasound probe or the optical coherence tomography probe is supported by a holder , characterized in that the ultrasound probe or the optical coherence tomography probe is arranged so as to be capable of detecting an object in a direction along a protruding direction of the projections , wherein the detecting direction of the ultrasound probe or the optical coherence tomography probe and the protruding direction of the projections are parallel to each other.
Electrolyte composition for a lithium-ion battery having at least one cathode and at least one anode, wherein the electrolyte composition contains (i) at least one aprotic non-aqueous solvent, (ii) a fluorine-containing cyclic carbonate component, and (iii) at least two lithium salts, wherein the one lithium salt is lithium nitrate, characterized in that the electrolyte composition contains lithium bis(fluorosulfonyl)imide as a further lithium salt.
A method for configuring an emulation method for emulating a second camera objective , comprising the steps: - determining a plurality of first images which are recorded using a first camera objective ; - determining a plurality of second images which are recorded using the second camera objective and whose image content corresponds to the image content of the plurality of first images ; and - configuring the emulation method for emulating the second camera objective on the basis of the plurality of first images and the plurality of second images , wherein the first images are provided as input to the emulation method and outputs of the emulation method in the form of emulated images are assessed by means of the second images . - determining a plurality of first images which are recorded using a first camera objective ; - determining a plurality of second images which are recorded using the second camera objective and whose image content corresponds to the image content of the plurality of first images ; and - configuring the emulation method for emulating the second camera objective on the basis of the plurality of first images and the plurality of second images ,
Portable non-invasive electrical nerve stimulation device , comprising: - an electrical one-piece module of which the lower surface is suitable for being applied to the exterior surface of a human body, said module comprising a housing incorporating a pulse generator circuit connected to at least two electrodes , said electrodes being separated by a space of at least 50 mm to output an electrical pulse to said nerve positioned in the body; and - means for fastening said module to the human body, which is a single fastening system positioned on the upper portion of an ankle, above the malleolus, characterized in that the one-piece module comprises, on its lower portion, a stud making it possible to connect the housing of the module to a lower electrode , thus making possible the free passage of the malleolus under said device . - an electrical one-piece module of which the lower surface is suitable for being applied to the exterior surface of a human body, said module comprising a housing incorporating a pulse generator circuit connected to at least two electrodes , said electrodes being separated by a space of at least 50 mm to output an electrical pulse to said nerve positioned in the body; and - means for fastening said module to the human body, which is a single fastening system positioned on the upper portion of an ankle, above the malleolus, characterized in that the one-piece module comprises, on its lower portion, a stud making it possible to connect the housing of the module to a lower electrode , thus making possible the free passage of the malleolus under said device .
A metal cover, comprising: a metal body and an antenna radiator , a gap provided between the metal body and the antenna radiator , at least one ground point being provided on the metal body , and the antenna radiator being electrically connected to the at least one ground point, and an opening formed in an area where the antenna radiator is located and configured for receiving a metallic component of an electronic device, wherein when the metal cover is assembled to the electronic device, the metallic component is located inside the metal cover and at a distance from the gap to form a gap-crossing at the gap , such that a parasitic capacitor is formed, wherein a first energy storage element , a second energy storage element and/or a wire stretched across the gap is disposed between a respective one of the at least one ground point and the antenna radiator so as to reduce the influence of the parasitic capacitor on an operating band of the antenna radiator, and each of the first energy storage element , the second energy storage element and/or the wire is directly electrically connected between a respective one of the at least one ground point and the antenna radiator . a metal body and an antenna radiator , a gap provided between the metal body and the antenna radiator , at least one ground point being provided on the metal body , and the antenna radiator being electrically connected to the at least one ground point, and an opening formed in an area where the antenna radiator is located and configured for receiving a metallic component of an electronic device, wherein when the metal cover is assembled to the electronic device, the metallic component is located inside the metal cover and at a distance from the gap to form a gap-crossing at the gap , such that a parasitic capacitor is formed, wherein a first energy storage element , a second energy storage element and/or a wire stretched across the gap is disposed between a respective one of the at least one ground point and the antenna radiator so as to reduce the influence of the parasitic capacitor on an operating band of the antenna radiator, and each of the first energy storage element , the second energy storage element and/or the wire is directly electrically connected between a respective one of the at least one ground point and the antenna radiator .
A thin film transistor substrate, comprising: a substrate (SUB); a first thin film transistor (T1) on the substrate (SUB) and including a polycrystalline semiconductor layer (A1), a first gate electrode (G1) on the polycrystalline semiconductor layer (A1), a first source electrode (S1), and a first drain electrode (D1); a second thin film transistor (T2) on the substrate (SUB) and including a second gate electrode (G2), an oxide semiconductor layer (A2) on the second gate electrode (G2), a second source electrode (S2), and a second drain electrode (D2); a first intermediate insulation layer (ILD1) of silicon nitride material arranged on the first gate electrode (G1), wherein the second gate electrode (G2) is arranged on the first intermediate insulating layer (ILD1), a second intermediate insulating layer (ILD2) of silicon oxide material arranged on the second gate electrode (G2) and arranged under the oxide semiconductor layer (A2); and a dummy layer (SE2) between the first source electrode (S1) and the second intermediate insulating layer (ILD2) and between the first drain electrode (D1) and the second intermediate insulating layer (ILD2), wherein the dummy layer (SE2) is formed of a same material as the oxide semiconductor layer (A2). a substrate (SUB); a first thin film transistor (T1) on the substrate (SUB) and including a polycrystalline semiconductor layer (A1), a first gate electrode (G1) on the polycrystalline semiconductor layer (A1), a first source electrode (S1), and a first drain electrode (D1); a second thin film transistor (T2) on the substrate (SUB) and including a second gate electrode (G2), an oxide semiconductor layer (A2) on the second gate electrode (G2), a second source electrode (S2), and a second drain electrode (D2); a first intermediate insulation layer (ILD1) of silicon nitride material arranged on the first gate electrode (G1), wherein the second gate electrode (G2) is arranged on the first intermediate insulating layer (ILD1), a second intermediate insulating layer (ILD2) of silicon oxide material arranged on the second gate electrode (G2) and arranged under the oxide semiconductor layer (A2); and a dummy layer (SE2) between the first source electrode (S1) and the second intermediate insulating layer (ILD2) and between the first drain electrode (D1) and the second intermediate insulating layer (ILD2), wherein the dummy layer (SE2) is formed of a same material as the oxide semiconductor layer (A2).
An unmanned aerial vehicle , comprising a fuselage and a power device connected onto the fuselage , wherein the unmanned aerial vehicle further comprises a control device and a takeoff and landing device disposed on the fuselage , and the power device and the takeoff and landing device are electrically connected with the control device respectively; the control device comprises a landing surface detection assembly , and the control device is used for, when the landing surface detection assembly detects that a landing destination of the unmanned aerial vehicle is a water surface, controlling operating modes of the power device and the takeoff and landing device to enable the unmanned aerial vehicle to land on the water surface and navigate, wherein the unmanned aerial vehicle is characterized in that the landing surface detection assembly further comprises a depth detector which is capable of detecting a depth of the water when the landing destination is the water surface; and in that the control device is capable of controlling the power device not to drive the entire unmanned aerial vehicle to land when the depth detector determines that the depth falls within a pre-set depth range.
A spring damper bearing assembly, comprising a damper cover , a dust cover and a spring damper bearing , the spring damper bearing comprising a bearing cap , a guide ring and a thrust bearing, the bearing cap and the guide ring being connected together and surrounding the thrust bearing, wherein a first buckle on the cap and a second buckle on the guide ring are locked with each other in shape to form a snap-fitting part so that the cap and the guide ring are snap-fitted together, the damper cover being connected to the bearing cap , the dust cover being connected to the guide ring , a gap (G) being formed between the dust cover and the guide ring , the bearing cap comprises an annular main body portion and a barrier part that is located on an inner circumferential side of the main body portion , the barrier part is in an annular shape and comprises an outer circumferential end connected to the main body portion and an inner circumferential end extending out from the outer circumferential end and being away from the main body portion , the inner circumferential end being nearer than the outer circumferential end to the lower axial side and the inner radial side of the spring damper bearing, characterized in that the inner circumferential end of the barrier part of the bearing cap being located on the inner radial side of the dust cover in the radial direction in order to block water from entering the gap (G). the damper cover being connected to the bearing cap , the dust cover being connected to the guide ring , a gap (G) being formed between the dust cover and the guide ring , the bearing cap comprises an annular main body portion and a barrier part that is located on an inner circumferential side of the main body portion , the barrier part is in an annular shape and comprises an outer circumferential end connected to the main body portion and an inner circumferential end extending out from the outer circumferential end and being away from the main body portion , the inner circumferential end being nearer than the outer circumferential end to the lower axial side and the inner radial side of the spring damper bearing, characterized in that the inner circumferential end of the barrier part of the bearing cap being located on the inner radial side of the dust cover in the radial direction in order to block water from entering the gap (G).
A vehicular power transmitting system including a dog clutch (D1) having a synchro-mesh mechanism, which dog clutch is provided to selectively connect and disconnect a rotary shaft having external teeth , and a clutch gear rotatable relative to the rotary shaft, to and from each other, the clutch gear having a tapered outer circumferential surface , the vehicular power transmitting system comprising: a first piston disposed within a center bore formed through the rotary shaft such that the first piston is axially reciprocable; a sleeve connected to the first piston and having internal teeth meshing with the external teeth of the rotary shaft so that the sleeve is rotated with the rotary shaft, and such that the sleeve is axially reciprocable together with the first piston according to axial movements of the first piston; a synchronizer ring supported in sliding contact with the tapered outer circumferential surface of the clutch gear such that the synchronizer ring is rotatable relative to the clutch gear; and an actuator including a second piston (92; 200) to axially advance the first piston for thereby bringing the internal teeth of the sleeve into meshing engagement with the clutch gear through the synchronizer ring , and wherein the first piston and the second piston (92; 200) are disposed coaxially with the rotary shaft . a first piston disposed within a center bore formed through the rotary shaft such that the first piston is axially reciprocable; a sleeve connected to the first piston and having internal teeth meshing with the external teeth of the rotary shaft so that the sleeve is rotated with the rotary shaft, and such that the sleeve is axially reciprocable together with the first piston according to axial movements of the first piston; a synchronizer ring supported in sliding contact with the tapered outer circumferential surface of the clutch gear such that the synchronizer ring is rotatable relative to the clutch gear; and an actuator including a second piston (92; 200) to axially advance the first piston for thereby bringing the internal teeth of the sleeve into meshing engagement with the clutch gear through the synchronizer ring , and wherein the first piston and the second piston (92; 200) are disposed coaxially with the rotary shaft .
An elevator machine comprising: a motor ; a sheave ; a bearing system supporting the sheave for rotation about an axis and comprising: an inner sleeve ; an inner race mounted to the inner sleeve; a housing ; an outer race mounted to the housing; one or more circumferential arrays of rolling elements between the inner race and the outer race; characterized by the bearing system further comprising a shield (160; 161) comprising: a hub secured to the sleeve; and a radially outwardly open channel at least along a portion of the shield. a motor ; a sheave ; a bearing system supporting the sheave for rotation about an axis and comprising: an inner sleeve ; an inner race mounted to the inner sleeve; a housing ; an outer race mounted to the housing; one or more circumferential arrays of rolling elements between the inner race and the outer race; characterized by the bearing system further comprising a shield (160; 161) comprising: a hub secured to the sleeve; and a radially outwardly open channel at least along a portion of the shield. an inner sleeve ; an inner race mounted to the inner sleeve; a housing ; an outer race mounted to the housing; one or more circumferential arrays of rolling elements between the inner race and the outer race; characterized by the bearing system further comprising a shield (160; 161) comprising: a hub secured to the sleeve; and a radially outwardly open channel at least along a portion of the shield. a hub secured to the sleeve; and a radially outwardly open channel at least along a portion of the shield.
A process for making a package for containing a liquid or semi-liquid product , in the form of a food product, defined by processed cheese, yoghurt or the like; the package comprising a container ; said container being in the form of a body defining an inner chamber for housing the product ; said process comprising sequentially the following steps: - introducing the product in said chamber for housing the container through a filling opening which emerges in said housing chamber ; - partly closing said filling opening in such a way as to make at least one passage for discharging the excess air present in said housing chamber ; - applying a pressure on said housing chamber for discharging the excess air present in the housing chamber through said at least one passage for discharging the excess air; and - sealing, in particular in a hermetically sealed fashion, said at least one passage for discharging the excess air characterised in that during said step of applying a pressure on said housing chamber , said product is forced to occupy a first stretch of said at least one passage for discharging the air, proximal to said housing chamber , after the complete discharging of excess air from said housing chamber ; a second stretch of said at least one passage , positioned contiguous to said first stretch and distal from said housing chamber , not being occupied by said product during the application of the pressure on said housing chamber , and in that said sealing step is performed with sealing means (141, 142; 149, 214, 214a, 214b) which act in a zone astride said first and second stretch in such a way as to touch both said first stretch , and said second stretch for the permanent sealing of said at least one passage . - introducing the product in said chamber for housing the container through a filling opening which emerges in said housing chamber ; - partly closing said filling opening in such a way as to make at least one passage for discharging the excess air present in said housing chamber ; - applying a pressure on said housing chamber for discharging the excess air present in the housing chamber through said at least one passage for discharging the excess air; and - sealing, in particular in a hermetically sealed fashion, said at least one passage for discharging the excess air
A method of signal transmission and reception by a user equipment, UE , in a wireless communication system, the method comprising: receiving (S3001) downlink control information, DCI, for scheduling a physical uplink shared channel, PUSCH; and transmitting (S3003) the PUSCH based on the DCI, wherein the PUSCH is transmitted in a specific number of resource blocks, RBs, wherein the specific number is a largest number which is (i) equal to or less than the number of RBs allocated by the DCI and (ii) a multiple of 2, 3, and/or 5, and characterized by : wherein, based on the DCI being received in a common search space, CSS, (i) the PUSCH is transmitted within a lowest indexed RB-set among uplink RB sets intersected with a lowest indexed control channel element, CCE, in which the DCI is detected, and (ii) the PUSCH is transmitted within a RB-set with a lowest index in a bandwidth part, BWP, in case that there is no RB-set intersected with the CCE. receiving (S3001) downlink control information, DCI, for scheduling a physical uplink shared channel, PUSCH; and transmitting (S3003) the PUSCH based on the DCI, wherein the PUSCH is transmitted in a specific number of resource blocks, RBs, wherein the specific number is a largest number which is (i) equal to or less than the number of RBs allocated by the DCI and (ii) a multiple of 2, 3, and/or 5, and characterized by : wherein, based on the DCI being received in a common search space, CSS, (i) the PUSCH is transmitted within a lowest indexed RB-set among uplink RB sets intersected with a lowest indexed control channel element, CCE, in which the DCI is detected, and (ii) the PUSCH is transmitted within a RB-set with a lowest index in a bandwidth part, BWP, in case that there is no RB-set intersected with the CCE.
A method comprising: moving a substrate, along a feed direction, through a magnetic field, wherein the substrate includes a fluid carrier containing magnetically-orientable flakes, wherein the magnetic field influences the magnetically-orientable flakes to be respectively oriented in one of multiple orientations; and during movement of the substrate through the magnetic field, applying radiation onto a plurality of selected portions of the fluid carrier through at least one opening in a mask, wherein the at least one opening is wedge-shaped or includes one or more angled sections having a stepped configuration, to cure the fluid carrier at the plurality of selected portions and fix the magnetically-orientable flakes in a helical or bi-helical arrangement with respect to each other along the direction that is perpendicular to the feed direction and within the plane of the substrate. moving a substrate, along a feed direction, through a magnetic field, wherein the substrate includes a fluid carrier containing magnetically-orientable flakes, wherein the magnetic field influences the magnetically-orientable flakes to be respectively oriented in one of multiple orientations; and during movement of the substrate through the magnetic field, applying radiation onto a plurality of selected portions of the fluid carrier through at least one opening in a mask, wherein the at least one opening is wedge-shaped or includes one or more angled sections having a stepped configuration, to cure the fluid carrier at the plurality of selected portions and fix the magnetically-orientable flakes in a helical or bi-helical arrangement with respect to each other along the direction that is perpendicular to the feed direction and within the plane of the substrate.