mhurhangee/patent-ind-claim-en huggingface dataset:
The method for producing a foundation element in the ground , in which - a hole is produced in the ground and - a hardenable mass is introduced into the hole , which hardens to the foundation element , - wherein an insert body is inserted approximately centrally into the hole , the insert body being spaced apart from a circumferential wall of the hole , wherein a ring-shaped intermediate space is formed between the circumferential wall of the hole and the insert body , and - wherein the hardenable mass is introduced into the ring-shaped intermediate space, which hardens to form a ring-shaped foundation element , wherein the insert body is surrounded on its outer side by a sheathing element and after hardening of the mass to the ring-shaped foundation element the insert body is withdrawn from the foundation element , wherein the sheathing element remains on the ring-shaped foundation element . - a hole is produced in the ground and - a hardenable mass is introduced into the hole , which hardens to the foundation element , - wherein an insert body is inserted approximately centrally into the hole , the insert body being spaced apart from a circumferential wall of the hole , wherein a ring-shaped intermediate space is formed between the circumferential wall of the hole and the insert body , and - wherein the hardenable mass is introduced into the ring-shaped intermediate space, which hardens to form a ring-shaped foundation element ,
An actuator for a parking lock , comprising at least the following components: - an axial drive means for transmitting an axial force ; - an actuating element having an actuating axis , which is axially moveable from a normal position into a deflected position by means of the axial force of the axial drive means ; - a stopper element ; - a stopper component corresponding to the stopper element ; and - a holding element which is moveable between a released position and a locking position, wherein, while the actuating element is in the deflected position, the stopper element and the stopper component are fixed relative to one another with the holding element in the locking position, wherein a solenoid having a coil and a piston that is axially moveable by means of a magnetic force generated by the coil is also provided, and wherein the holding element is fixedly connected to the axially moveable piston , characterised in that the magnetic flux generated by the coil is conducted through a return path, the return path comprises a radially inner return path and a radially outer return path , which surround the piston in a U-shape, an axial gap is present between the piston and the inner return path in at least one of the two positions of the holding element , and the magnetic flux is conducted through the two surfaces of the piston and the inner return path , which form the axial gap . - an axial drive means for transmitting an axial force ; - an actuating element having an actuating axis , which is axially moveable from a normal position into a deflected position by means of the axial force of the axial drive means ; - a stopper element ; - a stopper component corresponding to the stopper element ; and - a holding element which is moveable between a released position and a locking position, wherein, while the actuating element is in the deflected position, the stopper element and the stopper component are fixed relative to one another with the holding element in the locking position, wherein a solenoid having a coil and a piston that is axially moveable by means of a magnetic force generated by the coil is also provided, and wherein the holding element is fixedly connected to the axially moveable piston , characterised in that the magnetic flux generated by the coil is conducted through a return path, the return path comprises a radially inner return path and a radially outer return path , which surround the piston in a U-shape, an axial gap is present between the piston and the inner return path in at least one of the two positions of the holding element , and the magnetic flux is conducted through the two surfaces of the piston and the inner return path , which form the axial gap .
A speech intelligibility enhancing system for difficult acoustical conditions, the speech intelligibility enhancing system comprising at least one ear plug for insertion in an ear canal of a person, the at least one ear plug being arranged with an ear canal facing portion and an environment facing portion , and the at least one ear plug comprising an acoustically attenuating path (214; 214, 213) comprising a vent coupling said environment facing portion with said ear canal facing portion ; and an electroacoustic path (202, 204, 209; 202, 203, 204, 208, 209, 210, 211, 212) comprising a microphone at said environment facing portion , a variable gain and a loudspeaker at said ear canal facing portion ; wherein said acoustically attenuating path (214; 214, 213) is arranged with a transfer function from said environment facing portion to said ear canal facing portion having a low pass characteristic having a low pass cut-off frequency and said low pass characteristic attenuating sound by a nominal attenuation (G 0 ) for frequencies below said cut-off frequency; characterised in that said nominal attenuation (G 0 ) is in the range of 2 dB to 10 dB at 500 Hz, such as in the range of 2 dB to 8 dB at 500 Hz, such as in the range of 2 dB to 6 dB at 500 Hz, such as in the range of 2 dB to 5 dB at 500 Hz, such as in the range of 3 dB to 5 dB at 500 Hz, such as in the range of 3 dB to 4 dB at 500 Hz, and wherein said low pass cut-off frequency is in the range of 600 Hz to 1200 Hz, such as 700 Hz to 1000 Hz, such as 750 Hz to 900 Hz, such as 800 Hz, the low pass cut-off frequency being the 3 dB corner frequency. an acoustically attenuating path (214; 214, 213) comprising a vent coupling said environment facing portion with said ear canal facing portion ; and an electroacoustic path (202, 204, 209; 202, 203, 204, 208, 209, 210, 211, 212) comprising a microphone at said environment facing portion , a variable gain and a loudspeaker at said ear canal facing portion ; wherein said acoustically attenuating path (214; 214, 213) is arranged with a transfer function from said environment facing portion to said ear canal facing portion having a low pass characteristic having a low pass cut-off frequency and said low pass characteristic attenuating sound by a nominal attenuation (G 0 ) for frequencies below said cut-off frequency; characterised in that said nominal attenuation (G 0 ) is in the range of 2 dB to 10 dB at 500 Hz, such as in the range of 2 dB to 8 dB at 500 Hz, such as in the range of 2 dB to 6 dB at 500 Hz, such as in the range of 2 dB to 5 dB at 500 Hz, such as in the range of 3 dB to 5 dB at 500 Hz, such as in the range of 3 dB to 4 dB at 500 Hz, and wherein said low pass cut-off frequency is in the range of 600 Hz to 1200 Hz, such as 700 Hz to 1000 Hz, such as 750 Hz to 900 Hz, such as 800 Hz, the low pass cut-off frequency being the 3 dB corner frequency.
A deactivation method in a crosstalk scenario, comprising: switching , by a transceiver on a line, from a data transmission showtime state into a deactivation execution state; switching, by the transceiver, into a silent state or an idle state; characterized by further comprising: during the deactivation execution state, setting, by the transceiver, a downstream signal X d on the line to zero, and transmitting a signal X d ' , wherein X d is a signal to be inputted into a crosstalk canceller of the line, and X d ' is an output signal after X d which has been set to zero is inputted into the canceller. switching , by a transceiver on a line, from a data transmission showtime state into a deactivation execution state; switching, by the transceiver, into a silent state or an idle state; characterized by further comprising: during the deactivation execution state, setting, by the transceiver, a downstream signal X d on the line to zero, and transmitting a signal X d ' , wherein X d is a signal to be inputted into a crosstalk canceller of the line, and X d ' is an output signal after X d which has been set to zero is inputted into the canceller.
A lattice bearing support (100; 200; 300) comprising: a circular inner structure (104; 204; 304) having a center axis (CA), the circular inner structure (104; 204; 304) defining an inner radial surface (102; 202; 302); a circular outer structure (122; 222; 322), disposed radially outward from the circular inner structure (104; 204; 304) with respect to the center axis (CA), the circular outer structure (122; 222; 322) defining an outer radial surface (120; 220; 320); and an outer radial flange (124; 224; 324) disposed on the circular outer structure (122; 222; 322) and projecting radially outward from the outer radial surface (120; 220; 320), characterized in that the lattice bearing support further comprises: an inner rim (106; 206; 306) disposed on the circular inner structure (104; 204; 304) and projecting radially inward toward the center axis (CA); and a plurality of struts (150; 250; 350, 352) disposed radially between the circular inner structure (104; 204; 304) and the circular outer structure (122; 222; 322), wherein the plurality of struts (150; 250; 350, 352) are arranged in rows and the number of rows ranges from 1 - 12. a circular inner structure (104; 204; 304) having a center axis (CA), the circular inner structure (104; 204; 304) defining an inner radial surface (102; 202; 302); a circular outer structure (122; 222; 322), disposed radially outward from the circular inner structure (104; 204; 304) with respect to the center axis (CA), the circular outer structure (122; 222; 322) defining an outer radial surface (120; 220; 320); and an outer radial flange (124; 224; 324) disposed on the circular outer structure (122; 222; 322) and projecting radially outward from the outer radial surface (120; 220; 320), an inner rim (106; 206; 306) disposed on the circular inner structure (104; 204; 304) and projecting radially inward toward the center axis (CA); and a plurality of struts (150; 250; 350, 352) disposed radially between the circular inner structure (104; 204; 304) and the circular outer structure (122; 222; 322), wherein the plurality of struts (150; 250; 350, 352) are arranged in rows and the number of rows ranges from 1 - 12.
A reduced-pressure treatment system comprising: a dressing ; a supply chamber fluidly coupled to the dressing through a supply lumen ; characterized by a control chamber fluidly coupled to the dressing through a feedback lumen ; a charging chamber fluidly coupled to the supply chamber through a port ; and a regulator valve within the control chamber and operable to reciprocate within the control chamber to control fluid communication through the port based on a differential between a control pressure in the control chamber and a therapy pressure. a dressing ; a supply chamber fluidly coupled to the dressing through a supply lumen ; characterized by a control chamber fluidly coupled to the dressing through a feedback lumen ; a charging chamber fluidly coupled to the supply chamber through a port ; and a regulator valve within the control chamber and operable to reciprocate within the control chamber to control fluid communication through the port based on a differential between a control pressure in the control chamber and a therapy pressure.
A method to improve computed tomography, CT, to cone beam computed tomography, CBCT, registration, comprising: receiving, by a deformable image registration, DIR, system, a CT image generated by CT-scanning of an object; receiving, by the DIR system, a CBCT image generated by CBCT-scanning of the object; generating, by the DIR system, an image mask based on Digital Imaging and Communications in Medicine, DICOM, information extracted from the CBCT image , wherein for a specific pixel in the CBCT image , the image mask contains a corresponding data-field indicating whether the specific pixel contains image data generated based on the CBCT-scanning of the object; and generating, by the DIR system, a registered image by utilizing the image mask to perform a DIR between the CT image and the CBCT image ; and wherein the DICOM information comprises DICOM Target Center and DICOM Reconstruction Diameter. receiving, by a deformable image registration, DIR, system, a CT image generated by CT-scanning of an object; receiving, by the DIR system, a CBCT image generated by CBCT-scanning of the object; generating, by the DIR system, an image mask based on Digital Imaging and Communications in Medicine, DICOM, information extracted from the CBCT image , wherein for a specific pixel in the CBCT image , the image mask contains a corresponding data-field indicating whether the specific pixel contains image data generated based on the CBCT-scanning of the object; and generating, by the DIR system, a registered image by utilizing the image mask to perform a DIR between the CT image and the CBCT image ; and wherein the DICOM information comprises DICOM Target Center and DICOM Reconstruction Diameter.
An assembly for a drug delivery device , the assembly comprising an actuator which is configured to be pushed down in order to dispense a dose of medication, a piston rod and a feedback feature being configured to give an audible and/or tactile feedback signal to a user, wherein the feedback feature comprises a snap feature , characterized in that the feedback signal is given at the end of a dwell period after the actuator has reached its fully pushed down position, • wherein the snap feature is configured to snap through at the end of the dwell period or • the snap feature is configured to snap back into its uncompressed form at the end of the dwell period in case the snap feature is compressed by the piston rod during dose dispense and the snap feature is arranged at the distal end of the piston rod . • wherein the snap feature is configured to snap through at the end of the dwell period or • the snap feature is configured to snap back into its uncompressed form at the end of the dwell period in case the snap feature is compressed by the piston rod during dose dispense and the snap feature is arranged at the distal end of the piston rod .
An endoscope comprising: a proximal endoscope handle or interface having a handle or interface housing ; an insertion cord extending from the endoscope handle or interface and configured to be inserted into a patient's body cavity, the insertion cord comprising an insertion tube , a bending section and a distal tip unit ; and a steering mechanism configured to swivel the distal tip unit by bending the bending section at least in a first bending plane, the steering mechanism comprising a manually operable first steering input element being provided for receiving a rotational steering input by a user and being rotatably supported at the handle or interface housing ; and a first braking mechanism for braking the first steering input element with respect to the handle or interface housing , the first braking mechanism comprising a manually operable first braking input element being provided for receiving a braking input by a user, characterised in that the first braking mechanism further comprises a first braking cone element or portion which forms an essentially cone-shaped first braking surface and is non-rotatably connected to the handle or interface housing , and a second braking cone element or portion which forms an essentially cone-shaped second braking surface and is non-rotatably connected to the first steering input element or portion , with the first braking cone element or portion and/ or the second braking cone element or portion being axially translatable via the first braking input element to press the first braking surface against the second braking surface . a proximal endoscope handle or interface having a handle or interface housing ; an insertion cord extending from the endoscope handle or interface and configured to be inserted into a patient's body cavity, the insertion cord comprising an insertion tube , a bending section and a distal tip unit ; and a steering mechanism configured to swivel the distal tip unit by bending the bending section at least in a first bending plane, the steering mechanism comprising a manually operable first steering input element being provided for receiving a rotational steering input by a user and being rotatably supported at the handle or interface housing ; and a first braking mechanism for braking the first steering input element with respect to the handle or interface housing , the first braking mechanism comprising a manually operable first braking input element being provided for receiving a braking input by a user, characterised in that the first braking mechanism further comprises a first braking cone element or portion which forms an essentially cone-shaped first braking surface and is non-rotatably connected to the handle or interface housing , and a second braking cone element or portion which forms an essentially cone-shaped second braking surface and is non-rotatably connected to the first steering input element or portion , with the first braking cone element or portion and/ or the second braking cone element or portion being axially translatable via the first braking input element to press the first braking surface against the second braking surface .
A method of wireless communication of a first user equipment, UE, comprising: determining a data block to be transmitted to a second UE (504; 506); determining a first resource in a subframe for carrying the data block and a second resource in the subframe for carrying control information including a scheduling assignment indicating an allocation of the first resource associated with transmitting the data block; and transmitting the data block and the control information to the second UE (504; 506) in a device-to-device communication channel on the determined first and second resources, respectively, wherein the second resource comprises at least a portion of a fixed control symbol adjacent to a demodulation reference signal, DM-RS, symbol within the subframe . determining a data block to be transmitted to a second UE (504; 506); determining a first resource in a subframe for carrying the data block and a second resource in the subframe for carrying control information including a scheduling assignment indicating an allocation of the first resource associated with transmitting the data block; and transmitting the data block and the control information to the second UE (504; 506) in a device-to-device communication channel on the determined first and second resources, respectively, wherein the second resource comprises at least a portion of a fixed control symbol adjacent to a demodulation reference signal, DM-RS, symbol within the subframe .
A method for manufacturing a pivot bearing for the pivoting of a timepiece component , in particular a pivot jewel, wherein it comprises the following steps: - boring (E1) a hole in a bearing blank along an axis (A1) intended for the pivoting of a timepiece component , this hole forming a start point of a first pivot zone of the bearing , then - laser engraving (E2), in the blank , in particular using a femtosecond laser, a second clearance zone of the bearing , juxtaposed with the start point of a first pivot zone , this second clearance zone of the bearing opening at a first face of the bearing blank , then - removing material by means of wear (E3), in particular by olive-cutting, at the start point of a first pivot zone of the bearing and a boundary zone between the start point of a first pivot zone of the bearing and the second clearance zone of the bearing in order to form a first pivot zone and a second clearance zone of the bearing that are juxtaposed, being connected to each other by a rounded connection. - boring (E1) a hole in a bearing blank along an axis (A1) intended for the pivoting of a timepiece component , this hole forming a start point of a first pivot zone of the bearing , then - laser engraving (E2), in the blank , in particular using a femtosecond laser, a second clearance zone of the bearing , juxtaposed with the start point of a first pivot zone , this second clearance zone of the bearing opening at a first face of the bearing blank , then - removing material by means of wear (E3), in particular by olive-cutting, at the start point of a first pivot zone of the bearing and a boundary zone between the start point of a first pivot zone of the bearing and the second clearance zone of the bearing in order to form a first pivot zone and a second clearance zone of the bearing that are juxtaposed, being connected to each other by a rounded connection.
Control element, in particular for adjusting the roof or windows in a motor vehicle wherein the operating element has a surface with an inserted recess , and with a surface section connected to the surface above the trough , which only partially covers the trough , wherein at least one sensor (5, 5', 5", 5'") is moulded into the surface portion or is arranged or moulded on in whole or in part on the underside of the surface portion , characterized by this, in that the surface section is connected to the surface in one piece and without a gap, and in that the at least one sensor (5, 5', 5", 5"') detects a deformation of the surface section .