mhurhangee/patent-ind-claim-en huggingface dataset:
A kit for inserting or extracting a tool lodged within a biological object, the kit comprising: a surgical impacting tool including: a stored-energy drive mechanism configured to produce a spring-driven striking force, a controller configured to control storage and release of energy output from the stored-energy drive mechanism, an adapter configured to receive a surgical implement, and a launched mass configured to respond to the stored-energy drive mechanism and configured to communicate the striking force to the adapter to urge the surgical implement in a first direction; and a spring cartridge configured to be used in the surgical impacting tool, the cartridge being configured to deliver the striking force to the adapter. a stored-energy drive mechanism configured to produce a spring-driven striking force, a controller configured to control storage and release of energy output from the stored-energy drive mechanism, an adapter configured to receive a surgical implement, and a launched mass configured to respond to the stored-energy drive mechanism and configured to communicate the striking force to the adapter to urge the surgical implement in a first direction; and a spring cartridge configured to be used in the surgical impacting tool, the cartridge being configured to deliver the striking force to the adapter.
A mixing vessel for an electromotively driven food processor , which mixing vessel has a mixing mechanism , in particular a knife set or a milk foaming attachment , which by means of a coupling driver can be connected with the rotary drive of the food processor , wherein the mixing vessel has a cleaning device for purposes of cleaning an inner wall of the mixing vessel , in particular, a vessel floor , wherein further, the cleaning device is arranged on the mixing vessel , in particular on a vessel wall , and/or on the mixing mechanism , and has at least one cleaning element that is designed such that the latter is swept over the inner wall and/or over subregions of the mixing mechanism by an actuation of the cleaning device , and, by a mechanical interaction with any deposits that may be located on the inner wall and/or the mixing mechanism , helps to remove them, characterised in that , the cleaning element , in addition to a rotation about an axis of rotation of the mixing mechanism , can rotate about an axis of rotation arranged in parallel to the first axis of rotation .
A method of wireless communications, comprising: receiving , at a user equipment, LTE, an indication channel identifying one or more resources within an enhanced Mobile BroadBand, eMBB, slot that have been punctured by an Ultra-Reliable Low Latency Communication, URLLC, transmission, wherein the one or more resources are defined by one or more symbol periods into which the time domain is divided and one or more sub-bands into which the frequency domain is divided, and wherein a total number of sub-bands is two ; determining a number of resource block groups, RBGs, in an active band width part, BWP, of the UE; and mapping the number of RBGs in the active BWP among each of the total number of two sub-bands based on a pre-defined rule, wherein the pre-defined rule defines a mapping of a boundary RBG to the lower sub-band from the two sub-bands in the frequency domain, wherein the boundary RBG is an RBG located at a center of the active BWP , and the boundary RBG is adjacent to two RBGs, where each of the adjacent two RBGs is mapped to a different one of the two sub-bands . receiving , at a user equipment, LTE, an indication channel identifying one or more resources within an enhanced Mobile BroadBand, eMBB, slot that have been punctured by an Ultra-Reliable Low Latency Communication, URLLC, transmission, wherein the one or more resources are defined by one or more symbol periods into which the time domain is divided and one or more sub-bands into which the frequency domain is divided, and wherein a total number of sub-bands is two ; determining a number of resource block groups, RBGs, in an active band width part, BWP, of the UE; and mapping the number of RBGs in the active BWP among each of the total number of two sub-bands based on a pre-defined rule, wherein the pre-defined rule defines a mapping of a boundary RBG to the lower sub-band from the two sub-bands in the frequency domain, wherein the boundary RBG is an RBG located at a center of the active BWP , and the boundary RBG is adjacent to two RBGs, where each of the adjacent two RBGs is mapped to a different one of the two sub-bands .
A method comprising: providing a sheet of highly magnetic permeable material, the sheet having a width and a length , and a first surface and an opposite second surface with a thickness extending therebetween; forming the sheet with a plurality of slots in the first and second surfaces and at least partially extending through the sheet thickness parallel to the width of the sheet and spaced along a length of the sheet, the slots defining a plurality of teeth in the sheet between the slots and enabling the sheet to be conformable to a mounting surface of a secondary of a motor, the plurality of teeth having a motor pitch; characterized in the following: forming the sheet first surface with a first set of pockets adjacent the plurality of slots, the first set of pockets extending parallel to the width and being spaced along the length of the sheet, the first set of pockets forming an encoder scale for the motor, the first set of pockets having an encoder pitch, the motor pitch being an integer multiple of the encoder pitch; forming the sheet first surface with a second set of pockets formed adjacent the first set of pockets, the second set of pockets extending parallel to the width and being spaced along the length of the sheet, the second set of pockets forming teeth in a track readable by a sensor operatively connected to a control controlling commutation of the motor; and mounting the sheet to a support surface to form the secondary of the motor wherein the sheet is conformable to the support surface. providing a sheet of highly magnetic permeable material, the sheet having a width and a length , and a first surface and an opposite second surface with a thickness extending therebetween; forming the sheet with a plurality of slots in the first and second surfaces and at least partially extending through the sheet thickness parallel to the width of the sheet and spaced along a length of the sheet, the slots defining a plurality of teeth in the sheet between the slots and enabling the sheet to be conformable to a mounting surface of a secondary of a motor, the plurality of teeth having a motor pitch; forming the sheet first surface with a first set of pockets adjacent the plurality of slots, the first set of pockets extending parallel to the width and being spaced along the length of the sheet, the first set of pockets forming an encoder scale for the motor, the first set of pockets having an encoder pitch, the motor pitch being an integer multiple of the encoder pitch; forming the sheet first surface with a second set of pockets formed adjacent the first set of pockets, the second set of pockets extending parallel to the width and being spaced along the length of the sheet, the second set of pockets forming teeth in a track readable by a sensor operatively connected to a control controlling commutation of the motor; and mounting the sheet to a support surface to form the secondary of the motor wherein the sheet is conformable to the support surface.
Method for manufacturing a flat hollow fiber filtration membrane having an inner skin comprising a plurality of channels in parallel, le method comprising the following steps: a) selecting and preparing an organic polymer-based collodion , b) injecting the collodion into at least one channel of a spinneret that further comprises an extrusion spinneret core and at least one outlet, c) injecting an internal liquid into a plurality of hollow centering needles each comprising a channel positioned at the core of the extrusion spinneret, d) applying a first protective support film at the outlet of the extrusion spinneret, by unrolling the first support film onto a face of the membrane emerging from the outlet of the extrusion spinneret, e) applying a second protective support film at the outlet of the extrusion spinneret, by unrolling the second support film onto the other face of the membrane emerging from the outlet of the extrusion spinneret, the support films being of porous nature, f) immersing the filtration membrane with the first and second support films in a rinsing solution , g) ending the rinsing of the planar hollow fiber filtration membrane thus obtained. a) selecting and preparing an organic polymer-based collodion , b) injecting the collodion into at least one channel of a spinneret that further comprises an extrusion spinneret core and at least one outlet, c) injecting an internal liquid into a plurality of hollow centering needles each comprising a channel positioned at the core of the extrusion spinneret, d) applying a first protective support film at the outlet of the extrusion spinneret, by unrolling the first support film onto a face of the membrane emerging from the outlet of the extrusion spinneret, e) applying a second protective support film at the outlet of the extrusion spinneret, by unrolling the second support film onto the other face of the membrane emerging from the outlet of the extrusion spinneret, the support films being of porous nature, f) immersing the filtration membrane with the first and second support films in a rinsing solution , g) ending the rinsing of the planar hollow fiber filtration membrane thus obtained.
Steel material for the manufacture of pumps or the like, characterised in that the steel material features the following analysis in wt%: C ≤ 0.030 ; Si ≤ 0.40 ; Mn ≤ 0.60 ; P ≤ 0.025 ; S ≤ 0.005 ; Cr = 14.20 − 14.60 ; Mo = 0.30 − 0.45 ; Ni = 4.80 − 5.20 ; V < 0.10 ; W < 0.10 ; Cu = 3.00 − 3.70 ; Co < 0.15 ; Ti < 0.010 ; Al < 0.030 ; Nb < 0.02 ; Ta < 0.02 ; N < 0.02 ; remainder iron and unavoidable impurities, wherein the structure of the steel material consists of martensite with maximum 1% delta ferrite, wherein the structure is free of primary hard phases, in particular with a niobium, tantalum, titanium or vanadium base, and the temper austenite content is maximum 8%, wherein the steel material at a precipitation hardening temperature of 520°C attains a yield strength of approx. 1000 MPa with a toughness of more than 70 J at -40°C and at a precipitation hardening temperature of 485°C a yield strength of approx. 1100 MPa with a toughness of more than 60 J at -40°C, wherein the values of the mechanical properties are related to measurements in the transverse direction.
Arrangement for mold formation in concrete element manufacturing, which arrangement comprises a furnishing robot with predefined operating area for placing detachable side form units on a horizontal casting surface, at least one pallet comprising the said horizontal casting surface, which pallet is movable to and from the operating area of the furnishing robot, and a storage area (3; 3a, 3b, 3c) for storage of detachable side form units, which storage area is located inside the operating area of the furnishing robot for retrieving detachable side form units from the storage on the storage area and placing them on the horizontal casting surface by the furnishing robot, characterized in that at least part of the said storage (3; 3a, 3b, 3c) of detachable side form units is formed on a movable storage pallet (8; 8a, 8b, 8c), which movable storage pallet is movable to and from the storage area inside the operating area of the furnishing robot .
An electroluminescent device characterised in that it comprises: a metal free charged organic thermally activated delayed fluorescence (TADF) species and sufficient counter ions to balance the charge on the charged organic thermally activated delayed fluorescence species, as emitter material.
A warp knitted fabric which is a biocompatible implantable mesh for use in reconstructing tissue, the warp knitted fabric comprising: a first knitted portion formed of a first knitting sequence in a lengthwise direction, the first knitted portion having a width (W); a second knitted portion formed of a second knitting sequence in the lengthwise direction, the second knitted portion comprising at least two strips extending in the lengthwise direction, the at least two strips being detached from one another along their lengthwise edges such that the fabric has slits or holes between the strips and that run the length (L") of the strips , which is approximately or nearly the length of the second knitted portion ; wherein the second knitted portion has the same width (W) as the first knitted portion ; and wherein the first knitted portion and the second knitted portion alternate sequentially in the lengthwise direction and are formed of a set of continuous biocompatible textile strands ; characterised in that the strands are not cut at the juncture between the knitted portions where the warp knit fabric changes from having a unitary width to forming two or more strips . a first knitted portion formed of a first knitting sequence in a lengthwise direction, the first knitted portion having a width (W); a second knitted portion formed of a second knitting sequence in the lengthwise direction, the second knitted portion comprising at least two strips extending in the lengthwise direction, the at least two strips being detached from one another along their lengthwise edges such that the fabric has slits or holes between the strips and that run the length (L") of the strips , which is approximately or nearly the length of the second knitted portion ; wherein the second knitted portion has the same width (W) as the first knitted portion ; and wherein the first knitted portion and the second knitted portion alternate sequentially in the lengthwise direction and are formed of a set of continuous biocompatible textile strands ; characterised in that the strands are not cut at the juncture between the knitted portions where the warp knit fabric changes from having a unitary width to forming two or more strips .
An organic light-emitting display device (100; 200), comprising: an organic light-emitting element on a first substrate ; and a second substrate (150; 250) on the organic light-emitting element , wherein the second substrate (150; 250) is formed of a metal material; wherein the organic light-emitting display device (100; 200) further comprises: an encapsulation unit (140; 240) made of resin and covering the organic light-emitting element between the organic light emitting element and the second substrate to protect the organic light-emitting element against infiltration of moisture or oxygen and to bond the first substrate to the second substrate; a structure in which a driving film , which is disposed directly toward the second substrate (150; 250), having a driving chip mounted thereon, and is connected to a pad unit on the first substrate and to not be protruded further than the first substrate; a portion (180; 280) of the encapsulation unit (140; 240) between the second substrate (150; 250) and the driving film; and the portion of the encapsulation unit (140; 240) configured to reduce damage to the driving film caused by the second substrate (150; 250). an organic light-emitting element on a first substrate ; and a second substrate (150; 250) on the organic light-emitting element , wherein the second substrate (150; 250) is formed of a metal material; wherein the organic light-emitting display device (100; 200) further comprises: an encapsulation unit (140; 240) made of resin and covering the organic light-emitting element between the organic light emitting element and the second substrate to protect the organic light-emitting element against infiltration of moisture or oxygen and to bond the first substrate to the second substrate; a structure in which a driving film , which is disposed directly toward the second substrate (150; 250), having a driving chip mounted thereon, and is connected to a pad unit on the first substrate and to not be protruded further than the first substrate; a portion (180; 280) of the encapsulation unit (140; 240) between the second substrate (150; 250) and the driving film; and the portion of the encapsulation unit (140; 240) configured to reduce damage to the driving film caused by the second substrate (150; 250).
A method for operating a communication system, said communication system comprising a primary and at least one secondary station (210a - 210c), wherein the primary station selects a transmission mode from at least two transmission modes for communicating with the secondary station (210a - 210c), characterized in that the at least two transmission modes comprises a SU-MIMO mode and a MU-MIMO mode, wherein the secondary station (210a - 210c) infers the selected transmission mode based on a transmission rank indication indicating a transmission rank , wherein if the transmission rank exceeds a first predetermined number M, the secondary station (210a - 210c) infers that the selected transmission mode is the SU-MIMO mode, and wherein if the transmission rank is smaller than a second predetermined number N at most equal to the first predetermined number M, the secondary station (210a - 210c) infers that the selected transmission mode is the MU-MIMO mode.
A method for preparing a positive electrode active material for a secondary battery, comprising: preparing a lithium composite transition metal oxide including nickel (Ni), cobalt (Co), and manganese (Mn) wherein a content of the nickel (Ni) in a total content of the transition metal is 60 mol% or greater; and dry mixing and heat treating the lithium composite transition metal oxide, MgF 2 as a fluorine (F) coating source, and a boron (B) coating source to form a coating portion on the particle surface of the lithium composite transition metal oxide. preparing a lithium composite transition metal oxide including nickel (Ni), cobalt (Co), and manganese (Mn) wherein a content of the nickel (Ni) in a total content of the transition metal is 60 mol% or greater; and dry mixing and heat treating the lithium composite transition metal oxide, MgF 2 as a fluorine (F) coating source, and a boron (B) coating source to form a coating portion on the particle surface of the lithium composite transition metal oxide.
An apparatus for purifying an atmosphere to be treated comprising means for producing a fog by vibration of piezoelectric membranes, said apparatus including at least a battery to mist a cleansing liquid equipped with piezoelectric membranes , and means to convey various thus produced fog masses with a plurality of individualized airflows driving respectively the various fog masses apart from the membranes by individually guiding them towards a specific place of the atmosphere to be treated ; said apparatus including various cups in which various piezoelectric membranes of said misting battery are respectively provided and wherein are associated to it misted liquid flow control means acting by keeping a liquid level at a constant height above the corresponding membrane, said apparatus comprising a block (B1) integrating said misting battery and wherein are individually machined the various cups receiving the piezoelectric membranes as well as a plurality of internal cavities intended to collect the fog, each one opening into a fog guiding conduit rising towards the atmosphere to be treated by an airflow admitted in the corresponding cavities above said cups, characterized in that said apparatus comprises a tank (R, R') containing the cleansing liquid and means providing the recirculation towards said tank of liquid overflowing from the cups by outfall conduits ; the apparatus comprising a tank (R, R') containing the cleansing liquid, means to inject an airflow into said tank which include a fan (VA) located out of said block and said tank, and means to distribute this airflow (311, 312 ; 331, 332) towards said various cavities intended to collect the fog produced by the membranes in said cups ; said outfall conduits being connected on the one hand to lumens machined within said block, respectively opening into said cavities, and on the other hand, to the upper part of said tank, said outfall conduits being further used as means to distribute said airflow injected into the tank.
An automated guided vehicle (AGV, 10) comprising: a base frame having an upper portion configured to support a material handling apparatus ; a propulsion system adapted to propel the base frame ; first and second directional sensors disposed at opposing ends of the base frame and at least one operable to emit a sensor field (46a, b) within at least one slot disposed between the upper portion and a lower portion of the base frame ; and wherein the sensor fields (46a, b) of the first and second directional sensors each comprise coverage of at least 180 degrees in a substantially horizontal plane and are arranged to provide a combined sensor field substantially surrounding the AGV , wherein the base frame includes a plurality of support members extending between the upper and lower portions of the base frame , and wherein the at least one slot is disposed in the plurality of support members, characterized in that the support members extend upward from the lower portion within the area not affected by the at least one slot . a base frame having an upper portion configured to support a material handling apparatus ; a propulsion system adapted to propel the base frame ; first and second directional sensors disposed at opposing ends of the base frame and at least one operable to emit a sensor field (46a, b) within at least one slot disposed between the upper portion and a lower portion of the base frame ; and wherein the sensor fields (46a, b) of the first and second directional sensors each comprise coverage of at least 180 degrees in a substantially horizontal plane and are arranged to provide a combined sensor field substantially surrounding the AGV , wherein the base frame includes a plurality of support members extending between the upper and lower portions of the base frame , and wherein the at least one slot is disposed in the plurality of support members, characterized in that the support members extend upward from the lower portion within the area not affected by the at least one slot .
Ceramic component, having a main body and an electrical connection contact , wherein the connection contact has a first layer containing a first material (M1) and a second layer , which is arranged on the said first layer, containing a second material (M2), wherein the first material (M1) has a high electrical conductivity and the second material (M2) has a low coefficient of thermal expansion, wherein the electrical conductivity of the first material (M1) is at least 40 m/Ωmm 2 and the coefficient of thermal expansion of the second material (M2) is at most 2.5 ppm/K, wherein the coefficient of thermal expansion of the second material (M2) is lower than the coefficient of thermal expansion of the first material (M1), wherein the thickness of the second layer is in a ratio of 1:1 to 5:1 in relation to the thickness of the first layer , wherein the coefficient of thermal expansion of the connection contact is between 5 and 7 ppm/K as a whole, and containing a sintered contact material which fastens the connection contact to the main body .