mhurhangee/patent-ind-claim-en huggingface dataset:
A device (101-C) for storing and vaporizing liquid media, comprising the following: an outer tube mounted around at least a portion of an inner tube , wherein the outer tube comprises an outer surface and an inner surface; the inner tube comprises an inner surface defining an air path and an outer surface; an annular liquid media storage tank between the outer surface of the inner tube and an inner surface of the outer tube ; a mouth piece connected to a proximal end of the inner tube and to the outer tube ; and a proximal seal disposed between the inner tube and the mouth piece , wherein a perimeter of the proximal seal is connected with the inner surface of the outer tube , wherein the proximal seal comprises a seal tube and a flange portion extending radially from the seal tube , wherein an annular absorbent chamber is formed between the radially extending flange portion and the proximal end of the seal tube , characterized in that , an absorbent material is disposed within the annular absorbent chamber . an outer tube mounted around at least a portion of an inner tube , wherein the outer tube comprises an outer surface and an inner surface; the inner tube comprises an inner surface defining an air path and an outer surface; an annular liquid media storage tank between the outer surface of the inner tube and an inner surface of the outer tube ; a mouth piece connected to a proximal end of the inner tube and to the outer tube ; and a proximal seal disposed between the inner tube and the mouth piece , wherein a perimeter of the proximal seal is connected with the inner surface of the outer tube , wherein the proximal seal comprises a seal tube and a flange portion extending radially from the seal tube , wherein an annular absorbent chamber is formed between the radially extending flange portion and the proximal end of the seal tube , characterized in that , an absorbent material is disposed within the annular absorbent chamber .
A computer-implemented method of dental implant treatment planning, comprising the steps of: generating a multi-dimensional image model corresponding to a specific teeth arrangement; placing in the image model implant objects that form one implant; grouping the implant objects that form the one implant placed in the image model; and moving the position of the grouped implant objects together when one of the implant objects is moved or rotated by user input; characterized in that the implant objects that form the one implant comprise a virtual crown and a fixture . generating a multi-dimensional image model corresponding to a specific teeth arrangement; placing in the image model implant objects that form one implant; grouping the implant objects that form the one implant placed in the image model; and moving the position of the grouped implant objects together when one of the implant objects is moved or rotated by user input; characterized in that the implant objects that form the one implant comprise a virtual crown and a fixture .
A variable capacity vane pump comprising: a pump casing including a pump chamber ; a pump control ring moveable within the pump chamber to vary the volumetric capacity of the pump; a vane pump rotor positioned within a cavity of the pump control ring and being rotatable about an axis offset from a center of the pump control ring cavity; vanes being driven by the rotor and engaging an inside surface of the pump control ring ; a first control chamber between the pump casing and a first portion of the pump control ring , the first control chamber operable to receive pressurized fluid to create a force to move the pump control ring to reduce the volumetric capacity of the pump; a second control chamber between the pump casing and a second portion of the pump control ring between a first seal assembly and a second seal assembly , the second control chamber operable to receive pressurized fluid to create a force to move the pump control ring to reduce the volumetric capacity of the pump; and a return spring biasing the pump control ring toward a position of maximum volumetric capacity, the return spring acting against the forces created by the pressurized fluid within the first and second control chambers , characterized in the first portion of the pump control ring circumferentially extending on either side of a pivot pin between the first seal assembly and a third seal assembly . a pump casing including a pump chamber ; a pump control ring moveable within the pump chamber to vary the volumetric capacity of the pump; a vane pump rotor positioned within a cavity of the pump control ring and being rotatable about an axis offset from a center of the pump control ring cavity; vanes being driven by the rotor and engaging an inside surface of the pump control ring ; a first control chamber between the pump casing and a first portion of the pump control ring , the first control chamber operable to receive pressurized fluid to create a force to move the pump control ring to reduce the volumetric capacity of the pump; a second control chamber between the pump casing and a second portion of the pump control ring between a first seal assembly and a second seal assembly , the second control chamber operable to receive pressurized fluid to create a force to move the pump control ring to reduce the volumetric capacity of the pump; and a return spring biasing the pump control ring toward a position of maximum volumetric capacity, the return spring acting against the forces created by the pressurized fluid within the first and second control chambers , characterized in the first portion of the pump control ring circumferentially extending on either side of a pivot pin between the first seal assembly and a third seal assembly .
Moulded body for receiving a skull on a support surface , which is substantially ringshaped and preferably open, wherein a. at least in one section, the contour of the cross-section of the moulded body has a half ellipse inclined relative to the support surface and b. at least in one section, the contour of the cross-section of the moulded body is asymmetrical, wherein at least in one section, the contour of the cross-section of the moulded body has a convex support surface, which surface is the surface of the moulded body that points substantially inwards, i.e. towards the centre of the moulded body , or is inclined towards it, and on which the head rests, wherein at least in one section, the enclosed angle between the support surface and a mean tangent on an outwardly facing part of the cross-section of the moulded body is greater than the enclosed angle between the support surface and a mean tangent on an inwardly facing part of the cross-section of the moulded body , characterized in that the major semi-axis of the half ellipse is inclined by 25° to 50° relative to the support surface and the enclosed angle on the outwardly facing part of the cross-section is 65° to 90°, preferably 70° to 80°, and the enclosed angle on the inwardly facing part of the cross-section is less than or equal to 60°, preferably less than or equal to 50°, preferably 30° to 42°, more preferably 35° to 40°. a. at least in one section, the contour of the cross-section of the moulded body has a half ellipse inclined relative to the support surface and b. at least in one section, the contour of the cross-section of the moulded body is asymmetrical, wherein at least in one section, the contour of the cross-section of the moulded body has a convex support surface, which surface is the surface of the moulded body that points substantially inwards, i.e. towards the centre of the moulded body , or is inclined towards it, and on which the head rests, wherein at least in one section, the enclosed angle between the support surface and a mean tangent on an outwardly facing part of the cross-section of the moulded body is greater than the enclosed angle between the support surface and a mean tangent on an inwardly facing part of the cross-section of the moulded body , characterized in that the major semi-axis of the half ellipse is inclined by 25° to 50° relative to the support surface and the enclosed angle on the outwardly facing part of the cross-section is 65° to 90°, preferably 70° to 80°, and the enclosed angle on the inwardly facing part of the cross-section is less than or equal to 60°, preferably less than or equal to 50°, preferably 30° to 42°, more preferably 35° to 40°.
A capacitor bank for a subsea electrical component comprising: - a plurality of capacitors , - a plurality of resistors , each of the capacitors being in series with at least one of the resistors , - a plurality of diodes , each of the diodes being in parallel with one of the resistors for by-passing the resistors during discharge of the plurality of capacitors . - a plurality of capacitors , - a plurality of resistors , each of the capacitors being in series with at least one of the resistors , - a plurality of diodes , each of the diodes being in parallel with one of the resistors for by-passing the resistors during discharge of the plurality of capacitors .
An attachment assembly for attaching at least two parts to one another, the assembly comprising: - a first part comprising a main body extending primarily along a first main direction (L1), - at least one second part defining a receiving opening receiving the first part , the first part further comprising a tongue , the tongue being resiliently deformable relative to the main body and comprising a stop member , the second part comprising a rib , characterized in that the first part and the second part further respectively comprise first and second attachment members cooperating with one another in an attachment position, the first part being movable between at least the attachment position in which the first part is positioned in the receiving opening and the rib is separated from the stop member of the tongue , and a retaining position in which the first part is arranged protruding relative to the second part , the rib abutting against the stop member of the tongue . - a first part comprising a main body extending primarily along a first main direction (L1), - at least one second part defining a receiving opening receiving the first part , characterized in that the first part and the second part further respectively comprise first and second attachment members cooperating with one another in an attachment position, the first part being movable between at least the attachment position in which the first part is positioned in the receiving opening and the rib is separated from the stop member of the tongue , and a retaining position in which the first part is arranged protruding relative to the second part , the rib abutting against the stop member of the tongue .
A gas detection device comprising: a substrate ; a dielectric material applied to the substrate ; a sensor material applied to the dielectric material , wherein the sensor material has a bottom, a side , and a top surface ; and at least two electrodes , each electrode comprising a first electrode material portion and a second electrode material portion ; wherein the first electrode material portion at least partially applied to a portion of the side of the sensor material and a portion of the top surface of the sensor material to pin a portion of the sensor material to the dielectric material , wherein the first electrode material forms a vapor barrier upon the sensor material to facilitate preventing delamination between the sensor material and the first electrode material over portions of the sensor material where the sensor material is not pinned to the dielectric material , wherein the second electrode material portion is at least partially applied between the dielectric material and the bottom of the sensor material with a space , the space being formed between two second electrode material portions (1 10A) of the at least two electrodes , wherein the space is deposed with the sensor material , and wherein the sensor material deposed in the space is pinned to the dielectric material , characterised in that a first adhesion layer is formed between the second electrode material and the sensor element , and a second adhesion layer is formed between the second electrode material and the dielectric material . a substrate ; a dielectric material applied to the substrate ; a sensor material applied to the dielectric material , wherein the sensor material has a bottom, a side , and a top surface ; and at least two electrodes , each electrode comprising a first electrode material portion and a second electrode material portion ; wherein the first electrode material portion at least partially applied to a portion of the side of the sensor material and a portion of the top surface of the sensor material to pin a portion of the sensor material to the dielectric material , wherein the first electrode material forms a vapor barrier upon the sensor material to facilitate preventing delamination between the sensor material and the first electrode material over portions of the sensor material where the sensor material is not pinned to the dielectric material , wherein the second electrode material portion is at least partially applied between the dielectric material and the bottom of the sensor material with a space , the space being formed between two second electrode material portions (1 10A) of the at least two electrodes , wherein the space is deposed with the sensor material , and wherein the sensor material deposed in the space is pinned to the dielectric material , characterised in that a first adhesion layer is formed between the second electrode material and the sensor element , and a second adhesion layer is formed between the second electrode material and the dielectric material .
An imaging apparatus comprising: an imaging unit having a pixel region in which a plurality of pixels is arranged; a readout controller that controls readout of pixel signals from pixels included in the pixel region; and characterized by further comprising: a unit-of-readout controller that controls lines of pixels each as a unit of readout that is set as a part of the pixel region and for which the readout controller sequentially performs the readout of the pixel signal corresponding to a frame image; and a recognition unit that has learned training data for each of the lines of pixels as the units of readout, wherein the recognition unit sequentially performs a recognition process on the pixel signal corresponding to the frame image for each of the lines of pixels as the units of readout, and outputs a recognition result which is a result of the recognition process. an imaging unit having a pixel region in which a plurality of pixels is arranged; a readout controller that controls readout of pixel signals from pixels included in the pixel region; and characterized by further comprising: a unit-of-readout controller that controls lines of pixels each as a unit of readout that is set as a part of the pixel region and for which the readout controller sequentially performs the readout of the pixel signal corresponding to a frame image; and a recognition unit that has learned training data for each of the lines of pixels as the units of readout, wherein the recognition unit sequentially performs a recognition process on the pixel signal corresponding to the frame image for each of the lines of pixels as the units of readout, and outputs a recognition result which is a result of the recognition process. a unit-of-readout controller that controls lines of pixels each as a unit of readout that is set as a part of the pixel region and for which the readout controller sequentially performs the readout of the pixel signal corresponding to a frame image; and a recognition unit that has learned training data for each of the lines of pixels as the units of readout, wherein the recognition unit sequentially performs a recognition process on the pixel signal corresponding to the frame image for each of the lines of pixels as the units of readout, and outputs a recognition result which is a result of the recognition process.
A computer readable medium to store instructions that, when executed by a processor of a user equipment, UE , cause the UE to: receive a first non-access stratum, NAS, message provided by a mobility management function of a network, the first NAS message to indicate a request for user plane connection relocation by release of a first user plane connection to the network after establishment of a second user plane connection to the network; transmit a second NAS message for the mobility management function, the second NAS message to request establishment of the second user plane connection, in which the second user plane connection includes a new internet protocol, IP, address that is different from an old IP address of the first user plane connection, in which the second user plane connection is based on a geographic location of the UE; and transmit a third NAS message for the mobility management function, the third NAS message to request release of the first user plane connection, in which the instructions further cause the UE to generate the third NAS message in response to having moved all traffic to the second user plane connection. receive a first non-access stratum, NAS, message provided by a mobility management function of a network, the first NAS message to indicate a request for user plane connection relocation by release of a first user plane connection to the network after establishment of a second user plane connection to the network; transmit a second NAS message for the mobility management function, the second NAS message to request establishment of the second user plane connection, in which the second user plane connection includes a new internet protocol, IP, address that is different from an old IP address of the first user plane connection, in which the second user plane connection is based on a geographic location of the UE; and transmit a third NAS message for the mobility management function, the third NAS message to request release of the first user plane connection, in which the instructions further cause the UE to generate the third NAS message in response to having moved all traffic to the second user plane connection.
Method of holding a workpiece , characterised in that a plurality of spaced-apart auxiliary elements are non-releasably attached to the workpiece and in that the auxiliary elements are positively clamped by plastic deformation by means of a plurality of spaced-apart clamping jaws of a clamping device .
A child seat frame , comprising: a seat mount configured to fix to a main stroller frame and having a first latch portion ; a lower frame having a lower seat frame hub and pivotally coupled to the seat mount, wherein the lower frame has a second latch portion and a lower frame locker , the lower frame locker is actuated to engage with and disengage from the first latch portion, and when the lower frame locker disengages from the first latch portion, the lower frame pivots relative to the seat mount; and an upper frame pivotally coupled to the seat mount and the lower frame , characterized in that the upper frame has an upper frame locker , the upper frame locker is actuated to engage with and disengages from the second latch portion, and when the upper frame locker disengages from the lower seat frame hub, the upper frame pivots relative to the lower seat frame hub; wherein the upper frame locker engages with the second latch portion when the lower frame pivots relative to the seat mount. a seat mount configured to fix to a main stroller frame and having a first latch portion ; a lower frame having a lower seat frame hub and pivotally coupled to the seat mount, wherein the lower frame has a second latch portion and a lower frame locker , the lower frame locker is actuated to engage with and disengage from the first latch portion, and when the lower frame locker disengages from the first latch portion, the lower frame pivots relative to the seat mount; and an upper frame pivotally coupled to the seat mount and the lower frame , characterized in that the upper frame has an upper frame locker , the upper frame locker is actuated to engage with and disengages from the second latch portion, and when the upper frame locker disengages from the lower seat frame hub, the upper frame pivots relative to the lower seat frame hub; wherein the upper frame locker engages with the second latch portion when the lower frame pivots relative to the seat mount.
A method for generating a bitstream representing a 3D model, comprising: encoding a pattern and a transformation matrix of the pattern, the pattern being representative of the geometry of a plurality of repetitive structures in the 3D model, the transformation matrix comprising at least a translation part and a rotation part; reconstructing the pattern and the transformation matrix; reconstructing an instance of the pattern using the reconstructed pattern and the reconstructed transformation matrix, the instance of the pattern being one of the plurality of repetitive structures and represented as a transformation of the pattern using the transformation matrix; accessing a first quantization parameter used for quantizing a rotation part of the transformation matrix; estimating an upper bound of a vertex coordinate error between a vertex of the instance and a corresponding vertex of the reconstructed instance, based on the first quantization parameter and a distance between the corresponding vertex of the reconstructed instance and a rotation center of the reconstructed instance; determining a second quantization parameter based on the estimated upper bound; determining the vertex coordinate error between the vertex of the instance and the corresponding vertex of the reconstructed instance from the bitstream; quantizing the determined vertex coordinate error using the second quantization parameter to form a quantized error; and encoding the quantized error into the bitstream. encoding a pattern and a transformation matrix of the pattern, the pattern being representative of the geometry of a plurality of repetitive structures in the 3D model, the transformation matrix comprising at least a translation part and a rotation part; reconstructing the pattern and the transformation matrix; reconstructing an instance of the pattern using the reconstructed pattern and the reconstructed transformation matrix, the instance of the pattern being one of the plurality of repetitive structures and represented as a transformation of the pattern using the transformation matrix; accessing a first quantization parameter used for quantizing a rotation part of the transformation matrix; estimating an upper bound of a vertex coordinate error between a vertex of the instance and a corresponding vertex of the reconstructed instance, based on the first quantization parameter and a distance between the corresponding vertex of the reconstructed instance and a rotation center of the reconstructed instance; determining a second quantization parameter based on the estimated upper bound; determining the vertex coordinate error between the vertex of the instance and the corresponding vertex of the reconstructed instance from the bitstream; quantizing the determined vertex coordinate error using the second quantization parameter to form a quantized error; and encoding the quantized error into the bitstream.