mhurhangee/patent-ind-claim-en huggingface dataset:
A seeding machine for a row unit , the seeding machine comprising: a seed meter comprising: a seed disk with a plurality of apertures through which an air pressure differential is applied to retain seed thereon, the seed disk rotatable about an axis to convey seed from a seed reservoir ; a seed delivery apparatus comprising: an elongated housing having a first opening through which seed is received, a second opening through which seed exits, and an elongated interior chamber along which seed is conveyed from the first opening to the second opening , a pulley , an endless member driven by the pulley , the endless member movable within the elongated interior chamber of the elongated housing to receive seed from the first opening and convey seed to the second opening ; the seeding machine characterized by further comprising: a seed diverter positioned to contact and guide seed from the seed meter into the seed delivery apparatus , the seed diverter movable with respect to the endless member , translatable from a first position to a second position, and retractable via rotation of the seed meter . a seed meter comprising: a seed disk with a plurality of apertures through which an air pressure differential is applied to retain seed thereon, the seed disk rotatable about an axis to convey seed from a seed reservoir ; a seed delivery apparatus comprising: an elongated housing having a first opening through which seed is received, a second opening through which seed exits, and an elongated interior chamber along which seed is conveyed from the first opening to the second opening , a pulley , an endless member driven by the pulley , the endless member movable within the elongated interior chamber of the elongated housing to receive seed from the first opening and convey seed to the second opening ; an elongated housing having a first opening through which seed is received, a second opening through which seed exits, and an elongated interior chamber along which seed is conveyed from the first opening to the second opening , a pulley , an endless member driven by the pulley , the endless member movable within the elongated interior chamber of the elongated housing to receive seed from the first opening and convey seed to the second opening ; the seeding machine characterized by further comprising: a seed diverter positioned to contact and guide seed from the seed meter into the seed delivery apparatus , the seed diverter movable with respect to the endless member , translatable from a first position to a second position, and retractable via rotation of the seed meter .
A method for reading optical codes , in particular 2D codes, having distortions due to an uneven background of the code , wherein image data including the code are acquired, an area including the code is located in the image data, and the code content of the code is read from that, characterized in that the code is read from image data at sampling points that are arranged in a sampling pattern corresponding to the distortions, the sampling pattern being adapted locally to the distorted code on the basis of the image data.
An ostomy coupling assembly for fastening an adhesive wafer to an ostomy pouch , the ostomy pouch having an entrance aperture , and the adhesive wafer including a body-facing side for contacting a user's skin, a non-body-facing side opposite the body-facing side , and an adaptable region adaptable to fit around a stoma, the coupling comprising: a limited motion connection between the adhesive wafer and the ostomy pouch that permits relative displacement between (i) substantially the entire adhesive wafer and (ii) the entrance aperture of the ostomy pouch , the limited motion connection guiding said relative displacement along a limited motion path or locus, between (a) an operative position in which the adhesive wafer is superposed around the entrance aperture of the ostomy pouch , and (b) an access position providing access to the adaptable region from the non-body-facing side ; and a fixation coupling for fixing the adhesive wafer and the ostomy pouch when in the operative position; characterised in that the limited motion connection comprises a first attachment portion configured to be attached permanently to the ostomy pouch , a second attachment portion configured to be attached permanently to the adhesive wafer , and a movable joint portion between the first and second attachment portions ; and wherein the limited motion connection comprises a single piece of material. a limited motion connection between the adhesive wafer and the ostomy pouch that permits relative displacement between (i) substantially the entire adhesive wafer and (ii) the entrance aperture of the ostomy pouch , the limited motion connection guiding said relative displacement along a limited motion path or locus, between (a) an operative position in which the adhesive wafer is superposed around the entrance aperture of the ostomy pouch , and (b) an access position providing access to the adaptable region from the non-body-facing side ; and a fixation coupling for fixing the adhesive wafer and the ostomy pouch when in the operative position; characterised in that the limited motion connection comprises a first attachment portion configured to be attached permanently to the ostomy pouch , a second attachment portion configured to be attached permanently to the adhesive wafer , and a movable joint portion between the first and second attachment portions ; and wherein the limited motion connection comprises a single piece of material.
An emergency information delivering method for delivering emergency information to a mobile terminal using broadcast communication, comprising the steps of: notifying, to the mobile terminal , generation of emergency information to be received, by use of a paging signal used to activate a broadcast communication function of the mobile terminal, wherein the paging signal contains an overview of the emergency information and a terminal operation identifier specifying an operation for notifying warnings to a user according to the paging signal; notifying, from the mobile terminal to a user, the generation of the emergency information in response to the notification by the paging signal by performing an operation for notifying warnings to the user according to the paging signal and an operation for displaying the overview of the emergency information; transmitting, to the mobile terminal , detailed information of the emergency information as a broadcast communication message after the operation for notifying warnings according to the paging signal and the operation for displaying the emergency information are performed; and displaying, at the mobile terminal, the detailed information, after the broadcast communication function is activated by the paging signal, the detailed information being received as the broadcast communication message. notifying, to the mobile terminal , generation of emergency information to be received, by use of a paging signal used to activate a broadcast communication function of the mobile terminal, wherein the paging signal contains an overview of the emergency information and a terminal operation identifier specifying an operation for notifying warnings to a user according to the paging signal; notifying, from the mobile terminal to a user, the generation of the emergency information in response to the notification by the paging signal by performing an operation for notifying warnings to the user according to the paging signal and an operation for displaying the overview of the emergency information; transmitting, to the mobile terminal , detailed information of the emergency information as a broadcast communication message after the operation for notifying warnings according to the paging signal and the operation for displaying the emergency information are performed; and displaying, at the mobile terminal, the detailed information, after the broadcast communication function is activated by the paging signal, the detailed information being received as the broadcast communication message.
A torque motor comprising: a lower pole piece and an upper pole piece with respect to a vertical axis (X) of the torque motor; and an armature that is located between the lower pole piece and the upper pole piece , the armature comprising first and second opposed arm portions , each arm portion being positioned between the lower pole piece and the upper pole piece ; wherein at least one of the lower pole piece and the upper pole piece are formed by two respective arcuate members that are attached to one another at diametrically opposed attachment portions , wherein each arcuate member extends in opposite directions and follows a generally circular path defining a perimeter of said pole piece ; characterised in that each diametrically opposed attachment portion is configured as a block of material extending vertically away from a respective one of the first and second opposed arm portions , the respective arcuate members extending from the block of material, wherein each arcuate member is formed by three sections (122A-C, 132A-C), wherein a first section connects to one of the diametrically opposed attachment portions and extends vertically and circumferentially away from the diametrically opposed attachment portion to the second section , which extends circumferentially around the circular path, wherein the second section then extends into a third section that extends vertically and circumferentially towards the other of the diametrically opposed attachment portions . a lower pole piece and an upper pole piece with respect to a vertical axis (X) of the torque motor; and an armature that is located between the lower pole piece and the upper pole piece , the armature comprising first and second opposed arm portions , each arm portion being positioned between the lower pole piece and the upper pole piece ; wherein at least one of the lower pole piece and the upper pole piece are formed by two respective arcuate members that are attached to one another at diametrically opposed attachment portions , wherein each arcuate member extends in opposite directions and follows a generally circular path defining a perimeter of said pole piece ; characterised in that each diametrically opposed attachment portion is configured as a block of material extending vertically away from a respective one of the first and second opposed arm portions , the respective arcuate members extending from the block of material, wherein each arcuate member is formed by three sections (122A-C, 132A-C), wherein a first section connects to one of the diametrically opposed attachment portions and extends vertically and circumferentially away from the diametrically opposed attachment portion to the second section , which extends circumferentially around the circular path, wherein the second section then extends into a third section that extends vertically and circumferentially towards the other of the diametrically opposed attachment portions .
Method for vibration damping of a semi-submerged or submerged structure , wherein - separating hydrodynamic added mass (m add ) from the semi-submerged or submerged structure by arranging an outer cover being near buoyancy neutral of a vibration damper assembly partly or entirely enclosing and not being in contact with the semi-submerged or submerged structure and using seals at ends of the outer cover to provide a sealed damper volume for the vibration damper assembly between the outer cover and structure that is separated from water surrounding the structure , the sealed damper volume exhibiting spring and/or damper properties, and - using the separated hydrodynamic added mass (m add ) as a reaction mass for the spring and/or damper properties of the vibration damper assembly . - separating hydrodynamic added mass (m add ) from the semi-submerged or submerged structure by arranging an outer cover being near buoyancy neutral of a vibration damper assembly partly or entirely enclosing and not being in contact with the semi-submerged or submerged structure and using seals at ends of the outer cover to provide a sealed damper volume for the vibration damper assembly between the outer cover and structure that is separated from water surrounding the structure , the sealed damper volume exhibiting spring and/or damper properties, and - using the separated hydrodynamic added mass (m add ) as a reaction mass for the spring and/or damper properties of the vibration damper assembly .
A molding material comprising: a matrix resin composition containing the following Component (A), the following Component (B), the following Component (D) and the following Component (E); and the following Component (C), wherein a proportion of the Component (E) with respect to 100 parts by mass of a sum of the Component (A) and the Component (B) is 0.002 part by mass or more and 0.08 part by mass or less: Component (A): a compound having either or both of a hydroxyl group and a carboxyl group and a polymerizable unsaturated group, Component (B): an aromatic vinyl compound, Component (C): a reinforcing fiber bundle having a fiber length of 5 mm or more and 120 mm or less, Component (D): an isocyanate compound, and Component (E): a metal chelate compound. Component (A): a compound having either or both of a hydroxyl group and a carboxyl group and a polymerizable unsaturated group, Component (B): an aromatic vinyl compound, Component (C): a reinforcing fiber bundle having a fiber length of 5 mm or more and 120 mm or less, Component (D): an isocyanate compound, and Component (E): a metal chelate compound.
A method for manufacturing a composite rear section assembly joined with a continuous skin, the method comprising: obtaining a vertical tail plane tooling that comprises a collapsible intermediate tooling for tooling intermediate preforms of a vertical tail plane , wherein the intermediate preforms comprise spars and/or intermediate stiffeners of the vertical tail plane; obtaining a fuselage barrel tooling , , and the fuselage barrel tooling having a cut-out , , and longitudinal cavities , , and ; attaching the vertical tail plane tooling to the fuselage barrel tooling by the cut-out of the fuselage barrel tooling; performing a composite skin lay-up over the fuselage barrel tooling and the vertical tail plane tooling to obtain the continuous skin; curing the composite skin lay-up, the vertical tail plane tooling and the fuselage barrel tooling; and demoulding the tools to obtain the composite assembly with the continuous skin , . obtaining a vertical tail plane tooling that comprises a collapsible intermediate tooling for tooling intermediate preforms of a vertical tail plane , wherein the intermediate preforms comprise spars and/or intermediate stiffeners of the vertical tail plane; obtaining a fuselage barrel tooling , , and the fuselage barrel tooling having a cut-out , , and longitudinal cavities , , and ; attaching the vertical tail plane tooling to the fuselage barrel tooling by the cut-out of the fuselage barrel tooling; performing a composite skin lay-up over the fuselage barrel tooling and the vertical tail plane tooling to obtain the continuous skin; curing the composite skin lay-up, the vertical tail plane tooling and the fuselage barrel tooling; and demoulding the tools to obtain the composite assembly with the continuous skin , .
A method of producing a kraft paper having a density measured according to ISO 534:2011 of 630-870 kg/m 3 and a strain at break measured according to SS-ISO 1924-3:2011 in the machine direction (MD) of 1.0-8.9 %, comprising a step of calendering a paper web at a dry content of 55-79 %, wherein the line load of the calendering step is 8-90 kN/m, such as 10-70 kN/m, such as 12-50 kN/m, such as 15-40 kN/m.
A method for preparing a tissue sample for confocal laser scanning microscopy, comprising the following steps: 1.) providing a tissue sample (13, 13', 13") 2.) if necessary, cutting of the tissue sample (13, 13', 13") 3.) Applying the tissue sample to a object slide (18; 34) 4.) Applying a cover (22; 42) over the tissue sample (13, 13', 13"), wherein the cover (22; 42) is connected to the slide (18; 34) by means of a hardenable, plastically deformable mass , 5.) pressing the cover (22; 42) onto the tissue sample (13, 13', 13") with a predetermined force, and 6.) Hardening of the plastically deformable mass , while maintaining the pressure of step 5, wherein the hardenable, plastically deformable mass is selected from the hardenable silicones and the hardenable polyethers, in particular selected from the A-silicones and the K-silicones. 1.) providing a tissue sample (13, 13', 13") 2.) if necessary, cutting of the tissue sample (13, 13', 13") 3.) Applying the tissue sample to a object slide (18; 34) 4.) Applying a cover (22; 42) over the tissue sample (13, 13', 13"), wherein the cover (22; 42) is connected to the slide (18; 34) by means of a hardenable, plastically deformable mass , 5.) pressing the cover (22; 42) onto the tissue sample (13, 13', 13") with a predetermined force, and 6.) Hardening of the plastically deformable mass , while maintaining the pressure of step 5,
A compound of Formula 1: or a stereoisomer, pharmaceutically acceptable salt, or mixture thereof; optionally wherein Formula 1 is: or a stereoisomer, pharmaceutically acceptable salt, or mixture thereof.
A compound having the structure of Formula (I), or a pharmaceutically acceptable salt thereof, wherein, W 1 and W 2 are independently chosen from N, C-H, or C-F; X is chosen from hydrogen, optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted heterocyclyl, optionally substituted cycloalkylalkyl, optionally substituted heterocyclylalkyl, optionally substituted aralkyl, optionally substituted heteroarylalkyl, optionally substituted aryl, or optionally substituted heteroaryl; Y is chosen from hydrogen, halogen, optionally substituted alkyl, or optionally substituted cycloalkylalkyl; and Z is chosen from an optionally substituted group chosen from N -heterocyclyl, -O-heterocyclylalkyl, -N(H)-heterocyclylalkyl, -N(H)-alkyl, -N(Me)-alkyl, or -N(Me)-heterocyclylalkyl. W 1 and W 2 are independently chosen from N, C-H, or C-F; X is chosen from hydrogen, optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted heterocyclyl, optionally substituted cycloalkylalkyl, optionally substituted heterocyclylalkyl, optionally substituted aralkyl, optionally substituted heteroarylalkyl, optionally substituted aryl, or optionally substituted heteroaryl; Y is chosen from hydrogen, halogen, optionally substituted alkyl, or optionally substituted cycloalkylalkyl; and Z is chosen from an optionally substituted group chosen from N -heterocyclyl, -O-heterocyclylalkyl, -N(H)-heterocyclylalkyl, -N(H)-alkyl, -N(Me)-alkyl, or -N(Me)-heterocyclylalkyl.
A system for measuring a concentration of an analyte of interest in a biological fluid, comprising: a test meter; a first test strip , comprising: a first measurement electrode connectable to said test meter, a first trace loop (W-WS) with a first associated resistance, said first trace loop connectable to said test meter, and a second trace loop (C-CS) with a second associated resistance, said second trace loop connectable to said test meter; and characterized in that said test meter is adapted to: distinguish between at least two substantially non-zero resistance values, receive said first test strip , connect to said first measurement electrode , said first trace loop (W-WS), and said second trace loop (C-CS), and obtain a first resistance ratio by comparing said first and second associated resistances wherein the system further comprises a first measurement electrode trace conductively connected to said first measurement electrode , wherein said first trace loop (W-WS) comprises at least a portion of said first measurement electrode trace . a test meter; a first test strip , comprising: a first measurement electrode connectable to said test meter, a first trace loop (W-WS) with a first associated resistance, said first trace loop connectable to said test meter, and a second trace loop (C-CS) with a second associated resistance, said second trace loop connectable to said test meter; and a first measurement electrode connectable to said test meter, a first trace loop (W-WS) with a first associated resistance, said first trace loop connectable to said test meter, and a second trace loop (C-CS) with a second associated resistance, said second trace loop connectable to said test meter; and characterized in that said test meter is adapted to: distinguish between at least two substantially non-zero resistance values, receive said first test strip , connect to said first measurement electrode , said first trace loop (W-WS), and said second trace loop (C-CS), and obtain a first resistance ratio by comparing said first and second associated resistances distinguish between at least two substantially non-zero resistance values, receive said first test strip , connect to said first measurement electrode , said first trace loop (W-WS), and said second trace loop (C-CS), and obtain a first resistance ratio by comparing said first and second associated resistances wherein the system further comprises a first measurement electrode trace conductively connected to said first measurement electrode , wherein said first trace loop (W-WS) comprises at least a portion of said first measurement electrode trace .
A computing system , comprising: a host side human interface device (HID) software stack configured for device software implementation; and a host side HID I 2 C driver configured to interface the HID software stack with one or more peripheral devices that each include an HID I 2 C interface to a device that is configured for data communication in the computing system via an I 2 C data bus ; wherein, the HID I 2 C driver is configured for compatibility with one or more I 2 C controller drivers of the devices, the one or more I 2 C controller drivers each having a different implementation configuration to support differing I 2 C controller hardware; and wherein the HID I 2 C driver is configured for fast-read transactions, as the HID I 2 C driver performs an implicit data read of an address on an I 2 C device without a preceding I 2 C write transaction to the I 2 C device wherein said data read is implicit by the device firmware being equipped to move its running register address pointer back to an input register after any transaction that uses an explicit register address. a host side human interface device (HID) software stack configured for device software implementation; and a host side HID I 2 C driver configured to interface the HID software stack with one or more peripheral devices that each include an HID I 2 C interface to a device that is configured for data communication in the computing system via an I 2 C data bus ; wherein, the HID I 2 C driver is configured for compatibility with one or more I 2 C controller drivers of the devices, the one or more I 2 C controller drivers each having a different implementation configuration to support differing I 2 C controller hardware; and wherein the HID I 2 C driver is configured for fast-read transactions, as the HID I 2 C driver performs an implicit data read of an address on an I 2 C device without a preceding I 2 C write transaction to the I 2 C device wherein said data read is implicit by the device firmware being equipped to move its running register address pointer back to an input register after any transaction that uses an explicit register address.