mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: a network interface adapted to receive a valid key code ; a guided surface wave receive structure (R) configured to obtain electrical energy from a guided surface wave traveling along a terrestrial medium, wherein the guided surface wave is embedded with a user key code ; the guided surface wave receive structure comprising a tuned resonator having a phase delay (Φ), wherein the phase delay (Φ) of the guided surface wave receive structure is adjusted to match a tilt angle (Ψ) associated with the guided surface wave at the guided surface wave receive structure; a processing circuitry adapted to validate the user key code against the valid key code , wherein the processing circuitry is adapted to disable delivery of the electrical energy from the guided surface wave to an electrical load responsive to the user key code being invalidated; and the electrical load coupled to the guided surface wave receive structure (R), the electrical load being experienced as a load at an excitation source coupled to a guided surface waveguide probe (P) generating the guided surface wave. a network interface adapted to receive a valid key code ; a guided surface wave receive structure (R) configured to obtain electrical energy from a guided surface wave traveling along a terrestrial medium, wherein the guided surface wave is embedded with a user key code ; the guided surface wave receive structure comprising a tuned resonator having a phase delay (Φ), wherein the phase delay (Φ) of the guided surface wave receive structure is adjusted to match a tilt angle (Ψ) associated with the guided surface wave at the guided surface wave receive structure; a processing circuitry adapted to validate the user key code against the valid key code , wherein the processing circuitry is adapted to disable delivery of the electrical energy from the guided surface wave to an electrical load responsive to the user key code being invalidated; and the electrical load coupled to the guided surface wave receive structure (R), the electrical load being experienced as a load at an excitation source coupled to a guided surface waveguide probe (P) generating the guided surface wave.
An automatic transmission including a carrier (CR2) having short pinion gears (P4) and long pinion gears (P3), and a friction engagement element (C-2) disposed on an outer peripheral side of the carrier (CR2), wherein: a structure that supports the short pinion gears (P4) and the long pinion gears (P3) of the carrier (CR2) includes a carrier body and a carrier cover ; the carrier body includes an annular flange portion , thick-walled portions that are integral with the flange portion, and bridge portions that extend from the thick-walled portions, long pinion gear housing spaces (B) are formed between the flange portion and the carrier cover , and short pinion gear housing spaces (A) are formed between the thick-walled portions and the carrier cover ; a radially outer side of the short pinion gear housing spaces (A) is covered by the bridge portions which extend from the thick-walled portions and distal ends of which are integrally fixed to the carrier cover ; a radially outer side of the long pinion gear housing spaces (B) is made open by opening portions (C) provided between the bridge portions in a circumferential direction; and splines to be fitted with a friction member of the friction engagement element (C-2) are formed on outer peripheral surfaces of the bridge portions , characterized in that thick walled portions and bridge portions of the carrier body are formed integrally as one member, and a ring-shaped annular member that extends over an entire circumference is integrally fixed to outer peripheral portions of the bridge portions on a side of the thick-walled portions . a structure that supports the short pinion gears (P4) and the long pinion gears (P3) of the carrier (CR2) includes a carrier body and a carrier cover ; the carrier body includes an annular flange portion , thick-walled portions that are integral with the flange portion, and bridge portions that extend from the thick-walled portions, long pinion gear housing spaces (B) are formed between the flange portion and the carrier cover , and short pinion gear housing spaces (A) are formed between the thick-walled portions and the carrier cover ; a radially outer side of the short pinion gear housing spaces (A) is covered by the bridge portions which extend from the thick-walled portions and distal ends of which are integrally fixed to the carrier cover ; a radially outer side of the long pinion gear housing spaces (B) is made open by opening portions (C) provided between the bridge portions in a circumferential direction; and splines to be fitted with a friction member of the friction engagement element (C-2) are formed on outer peripheral surfaces of the bridge portions , characterized in that thick walled portions and bridge portions of the carrier body are formed integrally as one member, and a ring-shaped annular member that extends over an entire circumference is integrally fixed to outer peripheral portions of the bridge portions on a side of the thick-walled portions .
An orthopedic device comprising: an intramedullary implant defining a longitudinal bore along a longitudinal axis (A) and at least one bore formed along an axis for receipt of a fastener ; a fixation device receivable within the longitudinal bore, the fixation device having at least one guiding bore formed along a guiding axis transverse to the longitudinal axis; characterised in that it further comprises: at least one collet received within the at least one guiding bore for positioning the fastener at a variable angle relative to the guiding axis of the fixation device and the axis of the intramedullary implant, wherein advancement of the fixation device in the longitudinal bore from a first position to a second position deforms the at least one collet to couple the fastener to the intramedullary implant, wherein the at least one guiding bore includes a collet retaining feature formed in at least a portion of the circumference of the at least one guiding bore. an intramedullary implant defining a longitudinal bore along a longitudinal axis (A) and at least one bore formed along an axis for receipt of a fastener ; a fixation device receivable within the longitudinal bore, the fixation device having at least one guiding bore formed along a guiding axis transverse to the longitudinal axis; characterised in that it further comprises: at least one collet received within the at least one guiding bore for positioning the fastener at a variable angle relative to the guiding axis of the fixation device and the axis of the intramedullary implant, wherein advancement of the fixation device in the longitudinal bore from a first position to a second position deforms the at least one collet to couple the fastener to the intramedullary implant, wherein the at least one guiding bore includes a collet retaining feature formed in at least a portion of the circumference of the at least one guiding bore.
A jetting dispenser, comprising: an actuator housing , an actuator in the actuator housing , a fluid body housing coupled to the actuator housing with a hinge at one end and capable of being pivoted at an opposite end between a position in which the fluid body housing is coupled to the actuator housing and a position in which the fluid body housing is decoupled from the actuator housing , and a fluid body coupled to the fluid body housing and including a fluid inlet in communication with a fluid bore, and a jetting valve, the jetting valve including a movable shaft operatively coupled with the actuator when the fluid body housing is coupled to the actuator housing , the movable shaft being moved by the actuator to jet an amount of fluid from the fluid bore, wherein the fluid body is capable of being removed from the fluid body housing when the fluid body housing is decoupled from the actuator housing . an actuator housing , an actuator in the actuator housing , a fluid body housing coupled to the actuator housing with a hinge at one end and capable of being pivoted at an opposite end between a position in which the fluid body housing is coupled to the actuator housing and a position in which the fluid body housing is decoupled from the actuator housing , and a fluid body coupled to the fluid body housing and including a fluid inlet in communication with a fluid bore, and a jetting valve, the jetting valve including a movable shaft operatively coupled with the actuator when the fluid body housing is coupled to the actuator housing , the movable shaft being moved by the actuator to jet an amount of fluid from the fluid bore, wherein the fluid body is capable of being removed from the fluid body housing when the fluid body housing is decoupled from the actuator housing .
Device for the installation of rock bolts to form part of a cutting apparatus for creating tunnels and subterranean roadways, comprising: - a supporting structure , and - first and second bolting units mounted to the supporting structure , wherein each bolting unit is configured for drilling an installation hole (5a-5k) and/or for installing a rock bolt into a rock face ; at least one actuator is mounted to the supporting structure and configured for additionally moving at least one of the first and second bolting units , characterized in that the supporting structure is configured for rotatably moving the first and second bolting units about a common axis of rotation that is parallel to the cutting apparatus moving direction , the device comprises a swivel motor for rotatably moving the first and second bolting units about the common axis of rotation . - a supporting structure , and - first and second bolting units mounted to the supporting structure , wherein each bolting unit is configured for drilling an installation hole (5a-5k) and/or for installing a rock bolt into a rock face ; at least one actuator is mounted to the supporting structure and configured for additionally moving at least one of the first and second bolting units , characterized in that the supporting structure is configured for rotatably moving the first and second bolting units about a common axis of rotation that is parallel to the cutting apparatus moving direction , the device comprises a swivel motor for rotatably moving the first and second bolting units about the common axis of rotation .
Device (1; 1'; 1"; 1''') for producing a fiber composite component, comprising: a shaping tool (2; 2'; 2"); and a plurality of mechanically independent depositing units (3, 3', 3"), each of which is designed for movement on an associated running surface (6; 6') and for depositing a fibrous material on the shaping tool (2; 2'; 2"), wherein the depositing units (3, 3', 3") each comprise a control device (5; 5'; 5") which is designed to control the respective depositing unit (3; 3'; 3") for automatic cooperation with at least one further depositing unit (3; 3'; 3") for joint depositing of a predetermined fibre arrangement, characterized in that a hollow body is provided as a running surface (6; 6'), the inner side of which forms the running surface (6; 6'), wherein the tool (2'; 2") can be arranged at least in sections within the hollow body in such a way, in that it can be wrapped or braided with the fibre material by means of depositing units (3, 3', 3") moving on the running surface (6; 6'), wherein the running surface is ferromagnetic and the depositing units (3, 3', 3") each have a drive device with magnets controllable by means of the control device (5; 5'; 5") for magnetically driven movement on the running surface , and/or the running surface contains magnets controllable, in particular by means of the control device ; 5'; 5") of a depositing unit (3; 3'; 3"), and the depositing unit (3; 3'; 3") has a drive device cooperating therewith for magnetically driven locomotion on the running surface .
An optoelectronic sensor having a light receiver , receiving optics arranged in front of the light receiver , and a control and evaluation unit , the receiving optics having a beam deflection unit with a plurality of switchable blaze gratings (34a-d) of different grating constants arranged behind one another, wherein the control and evaluation unit is configured to switch a blaze grating (34a-d) on and off in accordance with a desired deflection angle of the beam deflection unit , characterized in that at least two blaze gratings (34c-d) have a same grating constant, but a mutually different blazing angle.
A container for storing a biological sample, comprising: a housing extending between a first open end and a second end , defining a container interior; a sample holder ; a removable closure for enclosing the first open end ; and at least one breakable membrane separating the container interior into at least a first chamber and a second chamber in fluid isolation from the first chamber, wherein the first chamber is open to the first open end of the housing and is adapted to receive the sample holder therein, the breakable membrane breakable to establish fluid communication between the first chamber and the second chamber , wherein the sample holder comprises a closable housing defining an internal cavity for holding a biological sample, the closable housing having a plurality of fluid openings adapted for allowing fluid contained within at least one of the first chamber and the second chamber to pass into the internal cavity . a housing extending between a first open end and a second end , defining a container interior; a sample holder ; a removable closure for enclosing the first open end ; and at least one breakable membrane separating the container interior into at least a first chamber and a second chamber in fluid isolation from the first chamber, wherein the first chamber is open to the first open end of the housing and is adapted to receive the sample holder therein, the breakable membrane breakable to establish fluid communication between the first chamber and the second chamber , wherein the sample holder comprises a closable housing defining an internal cavity for holding a biological sample, the closable housing having a plurality of fluid openings adapted for allowing fluid contained within at least one of the first chamber and the second chamber to pass into the internal cavity .
A fiber width adjusting apparatus comprising a rotary body configured to rotate around a rotation axis while interposing fibers in a form of a sheet elongated in one direction, and cause, by frictional force generated between the rotary body and the fibers, force to act on the fibers while feeding the fibers in a feed direction to vary a width and an orientation angle of the fibers, the fibers being impregnated with a resin or being before the impregnation with the resin, characterized in that the rotation axis is parallel to a thickness direction of the fibers, the force containing a component that is in a direction perpendicular to the thickness direction and to the feed direction, and in that the rotary body includes: a first rotary member configured to rotate and come into contact with an upper surface of the fibers; and a second rotary member that is spaced away from the first rotary member , and configured to rotate and come into contact with a lower surface of the fibers. a first rotary member configured to rotate and come into contact with an upper surface of the fibers; and a second rotary member that is spaced away from the first rotary member , and configured to rotate and come into contact with a lower surface of the fibers.
Slicing machine for strand-shaped foodstuffs , - having a housing with an introduction region for the strand-shaped foodstuff and with a removal region for the sliced strand-shaped foodstuff , - having a cutting knife for the strand-shaped foodstuff , - having a shaft (10.4) for receiving the strand-shaped foodstuff , the longitudinal direction of which corresponds to the feeding direction of the strand-shaped foodstuff , - having a packaging device for the sliced strand-shaped foodstuff , which is present inside the housing, - wherein the packaging device has at least one bag opener and at least one store for bags (30.4) - wherein a bag (30.4) provided by the store for bags is able to be kept open by the bag opener at least in the region of the bag opening , - wherein the store for bags (30.4) is arranged in the immediate vicinity of the cutting knife, such that the sliced slices are able to be inserted bit by bit into the bag (30.4), - characterized in that - the shaft (10.4) is of an angular design, - when viewed in the advancing direction, a displaceable slice holder is present behind the bag (30.4), and - the bag (30.4) in terms of its longitudinal extent is compressible by the slice holder . - having a housing with an introduction region for the strand-shaped foodstuff and with a removal region for the sliced strand-shaped foodstuff , - having a cutting knife for the strand-shaped foodstuff , - having a shaft (10.4) for receiving the strand-shaped foodstuff , the longitudinal direction of which corresponds to the feeding direction of the strand-shaped foodstuff , - having a packaging device for the sliced strand-shaped foodstuff , which is present inside the housing, - wherein the packaging device has at least one bag opener and at least one store for bags (30.4) - wherein a bag (30.4) provided by the store for bags is able to be kept open by the bag opener at least in the region of the bag opening , - wherein the store for bags (30.4) is arranged in the immediate vicinity of the cutting knife, such that the sliced slices are able to be inserted bit by bit into the bag (30.4), - characterized in that - the shaft (10.4) is of an angular design, - when viewed in the advancing direction, a displaceable slice holder is present behind the bag (30.4), and - the bag (30.4) in terms of its longitudinal extent is compressible by the slice holder .
A printing machine for printing a plurality of objects having an outer surface to be printed, the printing machine including: - a frame , and at least two treatment units and at least one printing unit attached on the frame , the printing unit comprising at least one inkjet printhead suitable for ejecting inkjets along a printing direction (DD), and for the inkjets to be aligned along an alignment direction (A) perpendicular to the printing direction (DD), and - a turret mounted rotating relative to the frame around a rotation axis (Δ2), and comprising at least four object holders spaced regularly apart at 90° around the rotation axis (Δ2), and suitable for holding the objects and rotating the objects around four object-holder axes (D1-D4), the turret being movable successively between at least four positions relative to the frame , at least one of the object holders being across from the printing unit in each of the positions, while two others of the object holders are across from the treatment units , wherein: - the object holder axes (D1-D4) are perpendicular to the rotation axis (Δ2), and - the printing machine includes a turret support on which the turret is mounted rotating around the rotation axis (Δ2), characterized in that : - an incline (β) of the turret support is adjustable around a pivot axis (Δ1) relative to the frame , the pivot axis (Δ1) being, on the one hand, perpendicular to the object holder axis (D2) of the object holder located across from the printing unit , and, on the other hand, coinciding with the object holder axes (D1, D3) of the other two object holders located across from the treatment units . - a frame , and at least two treatment units and at least one printing unit attached on the frame , the printing unit comprising at least one inkjet printhead suitable for ejecting inkjets along a printing direction (DD), and for the inkjets to be aligned along an alignment direction (A) perpendicular to the printing direction (DD), and - a turret mounted rotating relative to the frame around a rotation axis (Δ2), and comprising at least four object holders spaced regularly apart at 90° around the rotation axis (Δ2), and suitable for holding the objects and rotating the objects around four object-holder axes (D1-D4), the turret being movable successively between at least four positions relative to the frame , at least one of the object holders being across from the printing unit in each of the positions, while two others of the object holders are across from the treatment units , - the object holder axes (D1-D4) are perpendicular to the rotation axis (Δ2), and - the printing machine includes a turret support on which the turret is mounted rotating around the rotation axis (Δ2), - an incline (β) of the turret support is adjustable around a pivot axis (Δ1) relative to the frame , the pivot axis (Δ1) being, on the one hand, perpendicular to the object holder axis (D2) of the object holder located across from the printing unit , and, on the other hand, coinciding with the object holder axes (D1, D3) of the other two object holders located across from the treatment units .
The mode of operation of the system for monitoring the vehicle security, where the system comprises an on-board communication unit on the side of the vehicle , a receiving device with at least one motion sensor designed to detect the movement activity of the user and with a screen , a remote server communicatively connected to the on-board communication unit and receiving device and a monitoring unit on the side of the vehicle connected to the on-board communication unit , which is designed to monitor at least the closing of vehicle doors and/or windows, the switching off of the vehicle engine and the transmission of information on the state of the doors and/or windows to the on-board communication unit , characterized in that it comprises the following steps: - Detection of the switching off of the vehicle engine by the monitoring unit , wherein the monitoring unit first detects the switching off of the vehicle engine, whereby the process of using the system for the monitoring of the vehicle security is initiated; - Subsequent detection of the opening of the doors by the monitoring unit ; - Monitoring at least of the state of the vehicle door and/or window by the monitoring unit ; - Transmission of information on the door and/or window state to the on-board communication unit and subsequently to the remote server ; - Detection of the movement activity of the user by the motion sensor until the threshold value of the movement activity of the user is exceeded; - and when the threshold value of the movement activity of the user is exceeded the transmission of a request from the receiving device to send the state information of the doors and/or windows from the remote server to the receiving device , wherein this information is displayed as notification on the screen of the receiving device . - Detection of the switching off of the vehicle engine by the monitoring unit , wherein the monitoring unit first detects the switching off of the vehicle engine, whereby the process of using the system for the monitoring of the vehicle security is initiated; - Subsequent detection of the opening of the doors by the monitoring unit ; - Monitoring at least of the state of the vehicle door and/or window by the monitoring unit ; - Transmission of information on the door and/or window state to the on-board communication unit and subsequently to the remote server ; - Detection of the movement activity of the user by the motion sensor until the threshold value of the movement activity of the user is exceeded; - and when the threshold value of the movement activity of the user is exceeded the transmission of a request from the receiving device to send the state information of the doors and/or windows from the remote server to the receiving device , wherein this information is displayed as notification on the screen of the receiving device .