mhurhangee/patent-ind-claim-en huggingface dataset:
An anion conducting membrane formed using an anion conducting membrane-forming material, the anion conducting membrane-forming material comprising: a conjugated diene based polymer and/or a (meth)acrylic based polymer; and a compound containing at least one element selected from Groups I to XVII of the periodic table, which is selected from hydroxides and/or layered double hydroxides, the anion conducting membrane having a cross-section in which a ratio of a combined area of particles of the compound containing at least one element selected from Groups I to XVII of the periodic table to a combined area of the components of the anion conducting membrane-forming material other than the compound (particles of the compound/components of the anion conducting membrane-forming material other than the compound) is 70/30 to 30/70 according to the area ratio determination disclosed in the description section "Area ratio between particles of compound and components of anion conducting membrane-forming material other than the compound", the (meth)acrylic based polymer containing as a major constituent a monomer unit derived from a C1-C12 alkyl group-containing (meth)acrylic acid alkyl ester monomer. a conjugated diene based polymer and/or a (meth)acrylic based polymer; and a compound containing at least one element selected from Groups I to XVII of the periodic table, which is selected from hydroxides and/or layered double hydroxides, the anion conducting membrane having a cross-section in which a ratio of a combined area of particles of the compound containing at least one element selected from Groups I to XVII of the periodic table to a combined area of the components of the anion conducting membrane-forming material other than the compound (particles of the compound/components of the anion conducting membrane-forming material other than the compound) is 70/30 to 30/70 according to the area ratio determination disclosed in the description section "Area ratio between particles of compound and components of anion conducting membrane-forming material other than the compound", the (meth)acrylic based polymer containing as a major constituent a monomer unit derived from a C1-C12 alkyl group-containing (meth)acrylic acid alkyl ester monomer.
A multipack comprising a plurality of smoking article packs contained within an outer container, each of the smoking article packs comprising a group of smoking articles formed from a mixture of at least two different types of smoking article , characterised in that the mixture of different types of smoking articles contained in one of the packs differs from the mixture of different types of smoking articles contained in at least one other of the packs .
A packaged deodorant stick product comprising a deodorant stick composition, a retaining member and a holder , wherein the deodorant stick composition is mounted on the retaining member, the retaining member comprises one of a bayonet element and a socket and the holder comprises the other of the bayonet element and the socket, and wherein the bayonet element is lockably receivable within the socket such that the retaining member is removably connectable to the holder, wherein the retaining member comprises one of a detent and an indent and the holder comprises the other of the detent and the indent wherein the indent is adapted to receive the detent.
A composite electrode material, comprising: an active material; an artificial passive film, covering the active material; a middle layer, covering the artificial passive film, the middle layer including a first solid electrolyte and a first gel/liquid electrolyte, wherein a content of the first gel/liquid electrolyte is more than a content of the first solid electrolyte; and an outer layer, covering the middle layer, the outer layer including a second solid electrolyte and a second gel/liquid electrolyte, wherein a content of the second solid electrolyte is more than a content of the second gel/liquid electrolyte. an active material; an artificial passive film, covering the active material; a middle layer, covering the artificial passive film, the middle layer including a first solid electrolyte and a first gel/liquid electrolyte, wherein a content of the first gel/liquid electrolyte is more than a content of the first solid electrolyte; and an outer layer, covering the middle layer, the outer layer including a second solid electrolyte and a second gel/liquid electrolyte, wherein a content of the second solid electrolyte is more than a content of the second gel/liquid electrolyte.
A method for automatically processing 3D images to identify 3D volumes within the 3D images that correspond to a target tissue region, the method comprising: (a) receiving, by a processor of a computing device , a 3D anatomical image of a subject obtained using an anatomical imaging modality, wherein the 3D anatomical image comprises a graphical representation of tissue within the subject ; (b) determining, by the processor , using a first module , an initial volume of interest within the 3D anatomical image, the initial volume of interest corresponding to a particular anatomical region comprising the target region ; (c) identifying, by the processor , using a second module , a target volume within the initial volume of interest corresponding to the target tissue region of the subject ; and (d) storing and/or providing, by the processor , for display and/or further processing, a 3D segmentation mask corresponding to the identified target volume, wherein the first module is a convolutional neural network module that receives as input and operates on a down-sampled version of the 3D anatomical image having a first resolution and wherein the second module is a convolutional neural network module that receives as input and operates on a high-resolution version of the 3D anatomical image cropped to the initial volume of interest and having a second resolution, the second resolution higher than the first resolution. (a) receiving, by a processor of a computing device , a 3D anatomical image of a subject obtained using an anatomical imaging modality, wherein the 3D anatomical image comprises a graphical representation of tissue within the subject ; (b) determining, by the processor , using a first module , an initial volume of interest within the 3D anatomical image, the initial volume of interest corresponding to a particular anatomical region comprising the target region ; (c) identifying, by the processor , using a second module , a target volume within the initial volume of interest corresponding to the target tissue region of the subject ; and (d) storing and/or providing, by the processor , for display and/or further processing, a 3D segmentation mask corresponding to the identified target volume, wherein the first module is a convolutional neural network module that receives as input and operates on a down-sampled version of the 3D anatomical image having a first resolution and wherein the second module is a convolutional neural network module that receives as input and operates on a high-resolution version of the 3D anatomical image cropped to the initial volume of interest and having a second resolution, the second resolution higher than the first resolution.
A method for wireless communication, comprising: transmitting , from a first wireless communications device to a second wireless communications device, a first set of data using a first access resource selected from a common pool of access resources as part of a grant-less transmission; characterized by notifying, by the first wireless communications device, the second wireless communications device of a transition to a second access resource selected from a collision reduction pool in response to a determination that a transmission metric of the grant-less transmission exceeds a threshold, wherein the collision reduction pool is separate from the common pool; and transmitting , by the first wireless communications device, a second set of data to the second wireless communications device using the second access resource after transitioning to the second access resource; wherein the first wireless communications device is an internet of everything, IOE, device; the second wireless communications device is a base station, BS; the collision reduction pool is larger than the common pool; and the notifying includes notifying the second wireless communications device of the second access resource, wherein either the notifying also includes notifying the second wireless communications device of a specified period of time after which the transition is to occur or the first and second wireless communications devices are provisioned in advance with the specified period of time. transmitting , from a first wireless communications device to a second wireless communications device, a first set of data using a first access resource selected from a common pool of access resources as part of a grant-less transmission; characterized by notifying, by the first wireless communications device, the second wireless communications device of a transition to a second access resource selected from a collision reduction pool in response to a determination that a transmission metric of the grant-less transmission exceeds a threshold, wherein the collision reduction pool is separate from the common pool; and transmitting , by the first wireless communications device, a second set of data to the second wireless communications device using the second access resource after transitioning to the second access resource; wherein the first wireless communications device is an internet of everything, IOE, device; the second wireless communications device is a base station, BS; the collision reduction pool is larger than the common pool; and the notifying includes notifying the second wireless communications device of the second access resource, wherein either the notifying also includes notifying the second wireless communications device of a specified period of time after which the transition is to occur or the first and second wireless communications devices are provisioned in advance with the specified period of time.
A rotary-wing aerodyne , the said aerodyne comprising: - a motor ; - a structure supporting at least one passenger seat; - a rotor arranged above the said structure and linked to the motor by a hollow transmission shaft , the transmission shaft being movable in rotation in relation to the structure ; - a hollow mast attached to the structure and extending through the transmission shaft ; and - a parachute arranged above the rotor , the parachute being attached to the mast and linked to the structure by means of a suspension element passing through the mast ; characterised in that the said suspension element is produced from a multi-strand steel cable with a tensile strength of greater than 150 daN/mm 2 in order that the cable resist to the shearing efforts during the dislocation of the transmission shaft. - a motor ; - a structure supporting at least one passenger seat; - a rotor arranged above the said structure and linked to the motor by a hollow transmission shaft , the transmission shaft being movable in rotation in relation to the structure ; - a hollow mast attached to the structure and extending through the transmission shaft ; and - a parachute arranged above the rotor , the parachute being attached to the mast and linked to the structure by means of a suspension element passing through the mast ;
A bone regeneration material for bone fusion or void filling consisting of an osteoconductive carrier and an insulin-mimetic zinc compound, wherein said osteoconductive carrier is selected from the group consisting of autograft materials, allograft materials, and xenograft materials, and wherein the insulin-mimetic zinc compound is an inorganic zinc compound selected from the group consisting of zinc chloride, zinc sulfate, zinc phosphate, and zinc carbonate, or an organic acid zinc salt selected from the group consisting of zinc acetate, zinc formate, zinc propionate, zinc gluconate, bis(maltolato)zinc, zinc acexamate, zinc aspartate, bis(maltolato)zinc(II) [Zn(ma)2], bis(2-hydroxypyridine-N-oxido)zinc(II) [Zn(hpo)2], bis(allixinato)Zn(II) [Zn(alx)2], bis(6-methylpicolinato)Zn(II) [Zn 2], bis(aspirinato)zinc(II), bis(pyrrole-2-carboxylato)zinc [Zn(pc)2], bis(alpha-furonic acidato)zinc [Zn(fa)2], bis(thiophene-2-carboxylato)zinc [Zn(tc)2], bis(thiophene-2-acetato)zinc [Zn(ta)2], (N-acetyl-L-cysteinato)Zn(II) [Zn(nac)], zinc(II)/poly(y-glutamic acid) [Zn(y-pga)], bis(pyrrolidine-N-dithiocarbamate)zinc(II) [Zn(pdc)2], zinc(II) L-lactate [Zn(lac)2], zinc(II) D- -quinic acid [Zn(qui)2], bis(1,6-dimethyl-3-hydroxy-5-methoxy-2-pentyl-1,4-dihydropyridine-4-thionato)zinc(II) [Zn(tanm)2], and β-alanyl-L-histidinato zinc(II) (AHZ).
An apparatus for controlling fluid flow in a motor vehicle transmission , comprising: a first pump driven by an input shaft of the transmission to supply fluid from a source of fluid to at least one friction engagement device (C1, C2, C3) via a first fluid passageway , a second pump driven by the input shaft of the transmission to normally supply fluid from the source of fluid to a lubrication and cooling sub-system of the transmission via a second fluid passageway , a first valve fluidly coupled between the first and second fluid passageways and directing fluid from the second fluid passageway to the first fluid passageway when fluid pressure in the second fluid passageway is greater than fluid pressure in the first fluid passageway by at least a threshold pressure amount, and a second valve fluidly coupled to the first and second fluid passageways and to the lubrication and cooling sub-system, and characterised in that the second valve is blocking the first and second fluid passageways from the lubrication and cooling sub-system when a flow rate of the fluid in the first fluid passageway is less than a first threshold fluid flow rate, a temperature of the fluid is greater than a temperature threshold and a fluid flow demand is greater than a fluid flow demand threshold such that fluid pressure in the second fluid passageway exceeds the fluid pressure in the first fluid passageway by at least the threshold pressure amount, whereby fluid is supplied by the first and second pumps only to the at least one friction engagement device via the first fluid passageway. a first pump driven by an input shaft of the transmission to supply fluid from a source of fluid to at least one friction engagement device (C1, C2, C3) via a first fluid passageway , a second pump driven by the input shaft of the transmission to normally supply fluid from the source of fluid to a lubrication and cooling sub-system of the transmission via a second fluid passageway , a first valve fluidly coupled between the first and second fluid passageways and directing fluid from the second fluid passageway to the first fluid passageway when fluid pressure in the second fluid passageway is greater than fluid pressure in the first fluid passageway by at least a threshold pressure amount, and a second valve fluidly coupled to the first and second fluid passageways and to the lubrication and cooling sub-system, and characterised in that the second valve is blocking the first and second fluid passageways from the lubrication and cooling sub-system when a flow rate of the fluid in the first fluid passageway is less than a first threshold fluid flow rate, a temperature of the fluid is greater than a temperature threshold and a fluid flow demand is greater than a fluid flow demand threshold such that fluid pressure in the second fluid passageway exceeds the fluid pressure in the first fluid passageway by at least the threshold pressure amount, whereby fluid is supplied by the first and second pumps only to the at least one friction engagement device via the first fluid passageway.
A process for the compaction of Polyhalite with Potash, wherein said process comprising: mixing a feed of polyhalite with a feed of said Potash in a mixer to yield a mixture; compacting said mixture in a compactor to yield masses; crushing said masses in a crusher to yield particles; and screening said particles in a screener to yield particles in three different sizes: oversized fine particles which undergo a second crushing process and are retuned to said screener for screening, undersized fine particles which are transferred to said mixer for further mixing and compacting, and desired size fine particles which are transferred to a polish screener for glazing and oiling mixing a feed of polyhalite with a feed of said Potash in a mixer to yield a mixture; compacting said mixture in a compactor to yield masses; crushing said masses in a crusher to yield particles; and screening said particles in a screener to yield particles in three different sizes: oversized fine particles which undergo a second crushing process and are retuned to said screener for screening, undersized fine particles which are transferred to said mixer for further mixing and compacting, and desired size fine particles which are transferred to a polish screener for glazing and oiling
An injection-molding device for producing multi-component moldings from a thermoplastic molding compound, having a mold forming a first article cavity , having means for filling the first article cavity with the thermoplastic molding compound, having at least one first sprue for the first article cavity , having an injection device for injecting a fluid into the article cavity and having a mold core characterized in that the injection-molding device comprises a mold insert, which forms an appendage of the first article cavity and which encloses the mold core , wherein the mold core with the mold insert forms a second article cavity that is capable of being filled with a molding compound, wherein the mold insert has a second sprue , and wherein the second article cavity of the mold insert can be temporarily sealed in relation to the first article cavity by means of movable mold parts.
A slotless synchronous permanent magnet, PM, motor (1; 1') comprising: a rotor , and a stator configured to electromagnetically interact with the rotor , wherein the rotor is provided with a first conductive metal layer configured to create harmonic rotor saliency, wherein in cross-section of the rotor the first metal layer is provided peripherally on the rotor, forming an arc of a first circle sector , the rotor being further provided with a second conductive metal layer configured to create harmonic rotor saliency, wherein in cross-section of the rotor the second metal layer is provided peripherally on the rotor, forming an arc of a second circle sector , the centre of the arc of the second circle sector being at an angle (α) with respect to the centre of the arc of the first circle sector, and wherein the first conductive metal layer and the second conductive metal layer are electrically connected to each other at each end portion or end of the rotor in an axial direction, hereby an inductance of an electrical phase decreases as the first metal layer and second metal layer aligns with energised winding portions of that electrical phase, resulting in a harmonic rotor saliency enabling rotor position detection without using an angle encoder. a rotor , and a stator configured to electromagnetically interact with the rotor , wherein the rotor is provided with a first conductive metal layer configured to create harmonic rotor saliency, wherein in cross-section of the rotor the first metal layer is provided peripherally on the rotor, forming an arc of a first circle sector , the rotor being further provided with a second conductive metal layer configured to create harmonic rotor saliency, wherein in cross-section of the rotor the second metal layer is provided peripherally on the rotor, forming an arc of a second circle sector , the centre of the arc of the second circle sector being at an angle (α) with respect to the centre of the arc of the first circle sector, and wherein the first conductive metal layer and the second conductive metal layer are electrically connected to each other at each end portion or end of the rotor in an axial direction, hereby an inductance of an electrical phase decreases as the first metal layer and second metal layer aligns with energised winding portions of that electrical phase, resulting in a harmonic rotor saliency enabling rotor position detection without using an angle encoder.
A method for monitoring a control channel, characterized by comprising: receiving configuration information of a first common control resource set before successful initial access of a terminal device, wherein the configuration information indicates where a physical resource block occupied by the first common control resource set is located in a first downlink bandwidth part, and wherein the first downlink bandwidth part is configured by system information block 1, SIB1, and takes effect after the successful initial access of the terminal device; and monitoring a physical downlink control channel based on a first common resource block set occupied by the first common control resource set before the successful initial access of the terminal device, to obtain uplink scheduling control information or downlink scheduling control information, wherein a start common resource block of the first common control resource set is determined based on a start common resource block of the first downlink bandwidth part and the configuration information of the first common control resource set. receiving configuration information of a first common control resource set before successful initial access of a terminal device, wherein the configuration information indicates where a physical resource block occupied by the first common control resource set is located in a first downlink bandwidth part, and wherein the first downlink bandwidth part is configured by system information block 1, SIB1, and takes effect after the successful initial access of the terminal device; and monitoring a physical downlink control channel based on a first common resource block set occupied by the first common control resource set before the successful initial access of the terminal device, to obtain uplink scheduling control information or downlink scheduling control information, wherein a start common resource block of the first common control resource set is determined based on a start common resource block of the first downlink bandwidth part and the configuration information of the first common control resource set.