mhurhangee/patent-ind-claim-en huggingface dataset:
Unit, which comprises: - a switchable power socket which comprises a receptacle into which a first power plug of an electrical device can be inserted and which comprises a second power plug for coupling the switchable power socket to an electrical supply network ; and - a device for protecting a plug connection between the first power plug and the switchable power socket , wherein - the device has a wall which is configured in an installed state at least partially to enclose the switchable power socket with the inserted first power plug ; - the wall comprises a plug-side recess at which, in the installed state, the second power plug at least partially penetrates the wall ; and - the wall is configured such that, in the installed state, the wall at least partially covers the first power plug in order to prevent a withdrawal of the first power plug from the receptacle , characterised in that - the switchable power socket comprises a sensor which is configured to detect whether the wall of the device at least partially surrounds the switchable power socket or not, wherein the switchable power socket is configured to transfer a signal of the sensor via a communication connection to a control unit of a system for communal use of the electrical device . - a switchable power socket which comprises a receptacle into which a first power plug of an electrical device can be inserted and which comprises a second power plug for coupling the switchable power socket to an electrical supply network ; and - a device for protecting a plug connection between the first power plug and the switchable power socket , wherein - the device has a wall which is configured in an installed state at least partially to enclose the switchable power socket with the inserted first power plug ; - the wall comprises a plug-side recess at which, in the installed state, the second power plug at least partially penetrates the wall ; and - the wall is configured such that, in the installed state, the wall at least partially covers the first power plug in order to prevent a withdrawal of the first power plug from the receptacle , - the switchable power socket comprises a sensor which is configured to detect whether the wall of the device at least partially surrounds the switchable power socket or not, wherein the switchable power socket is configured to transfer a signal of the sensor via a communication connection to a control unit of a system for communal use of the electrical device .
An enhanced interface laparoscopy device, comprising: a. at least one endoscope , mechanically interconnected to an automated assistant; said automated assistant is adapted to maneuver said endoscope to a desired location; b. at least one instrument ; c. at least one operator comprising at least one wireless transmitter , adapted to transmit a signal once said at least one operator is activated; said at least one operator is either wire or wirelessly in communication with said at least one of said instrument ; d. at least one wireless receiver ; adapted to receive said signal sent by said transmitter ; e. at least one laparoscopy computerized system, in communication with said wireless receiver , adapted to provide a visual onscreen depiction of said at least one instrument to be selected following the activation of said at least one operator; and, f. at least one video screen ; wherein said device is adapted to control and to direct said endoscope via said laparoscopy computerized system and said automated assistant on said instrument to be selected following the activation of said at least one operator ; characterized in that said at least one operator is wearable, and wherein said wearable operator comprises a body having two portions partially overlapping each other; said two portions are adapted to grasp and hold said instrument there-between, such that a tight-fit coupling between said two portions and said instrument is obtained, wherein one of the two portions is provided with a unidirectional or a two-way directional catch , such that the one of the two portions is adapted to be linearly moved relative to the other of the two portions . a. at least one endoscope , mechanically interconnected to an automated assistant; said automated assistant is adapted to maneuver said endoscope to a desired location; b. at least one instrument ; c. at least one operator comprising at least one wireless transmitter , adapted to transmit a signal once said at least one operator is activated; said at least one operator is either wire or wirelessly in communication with said at least one of said instrument ; d. at least one wireless receiver ; adapted to receive said signal sent by said transmitter ; e. at least one laparoscopy computerized system, in communication with said wireless receiver , adapted to provide a visual onscreen depiction of said at least one instrument to be selected following the activation of said at least one operator; and, f. at least one video screen ;
A 3D scanner for recording the 3D topography of an object , the 3D scanner comprising: - an illumination unit configured for providing probe light for illuminating the object, where the probe light comprises a pattern of light rays; - an image sensor for acquiring one or more 2D images of light rays returning from the illuminated object; - an optical system comprising an optical element arranged such that the patterned probe light passes through the optical element when propagating towards the object from the illumination unit along an optical path, and a motorized rotation stage comprising a first part and a second part where the motorized rotation stage is configured for rotating the second part relative to the first part around a rotation axis of the motorized rotation stage, wherein the rotation axis of the motorized rotation stage and the optical path at the optical element are aligned; and - a device for changing the configuration of the optical system between a first and a second configuration by controlling the motorized rotation stage, where the change in configuration comprises a change in orientation of the optical element between a first orientation and a second orientation relative to the optical path of the probe light such that the change of configuration provides a shift in the position of the probe light pattern on the illuminated object; where the optical element is arranged on the second part of the motorized rotation stage with an acute angle relative to the optical path and such that the optical element is rotated around the optical path of the probe light when the second part is rotated around the rotation axis. - an illumination unit configured for providing probe light for illuminating the object, where the probe light comprises a pattern of light rays; - an image sensor for acquiring one or more 2D images of light rays returning from the illuminated object; - an optical system comprising an optical element arranged such that the patterned probe light passes through the optical element when propagating towards the object from the illumination unit along an optical path, and a motorized rotation stage comprising a first part and a second part where the motorized rotation stage is configured for rotating the second part relative to the first part around a rotation axis of the motorized rotation stage, wherein the rotation axis of the motorized rotation stage and the optical path at the optical element are aligned; and - a device for changing the configuration of the optical system between a first and a second configuration by controlling the motorized rotation stage, where the change in configuration comprises a change in orientation of the optical element between a first orientation and a second orientation relative to the optical path of the probe light such that the change of configuration provides a shift in the position of the probe light pattern on the illuminated object;
A semiconductor assembly (200; 222; 240; 508; 542, 562; 582; 602) comprising: a first power terminal (206; 212); a second power terminal (208; 214); a state change trigger terminal (216; 246); and a semiconductor device (202; 244) comprising a first terminal and a second terminal ; wherein: the first power terminal (206; 212) is electrically connected to the first terminal of the semiconductor device (202; 244); the second power terminal (208; 214) is electrically connected to the second terminal of the semiconductor device (202; 244); and the state change trigger terminal (216; 246) is connected to the second terminal of the semiconductor device (202; 244) and is configured to deliver energy to the semiconductor device (202; 244) to cause a change in state thereof such that a permanent conductive path is formed between the first and second terminals (206; 208), the semiconductor assembly being characterized in that the contact area of the connection of the state change trigger terminal (216; 246) with the second terminal is smaller than the contact area of the first and second power terminals (212; 214) with the semiconductor device (202; 244). a first power terminal (206; 212); a second power terminal (208; 214); a state change trigger terminal (216; 246); and a semiconductor device (202; 244) comprising a first terminal and a second terminal ; wherein: the first power terminal (206; 212) is electrically connected to the first terminal of the semiconductor device (202; 244); the second power terminal (208; 214) is electrically connected to the second terminal of the semiconductor device (202; 244); and the state change trigger terminal (216; 246) is connected to the second terminal of the semiconductor device (202; 244) and is configured to deliver energy to the semiconductor device (202; 244) to cause a change in state thereof such that a permanent conductive path is formed between the first and second terminals (206; 208), the semiconductor assembly being characterized in that the contact area of the connection of the state change trigger terminal (216; 246) with the second terminal is smaller than the contact area of the first and second power terminals (212; 214) with the semiconductor device (202; 244). the first power terminal (206; 212) is electrically connected to the first terminal of the semiconductor device (202; 244); the second power terminal (208; 214) is electrically connected to the second terminal of the semiconductor device (202; 244); and the state change trigger terminal (216; 246) is connected to the second terminal of the semiconductor device (202; 244) and is configured to deliver energy to the semiconductor device (202; 244) to cause a change in state thereof such that a permanent conductive path is formed between the first and second terminals (206; 208), the semiconductor assembly being characterized in that the contact area of the connection of the state change trigger terminal (216; 246) with the second terminal is smaller than the contact area of the first and second power terminals (212; 214) with the semiconductor device (202; 244).
Magnetic stripe reading system characterized in that it comprises: - a magnetic stripe reader comprising at least one first sensor (120_1) and one second sensor (120_2) respectively delivering a first temporal signal (420_1a, 420_1b) and a second temporal signal (420_2a, 420_2b) proportional to a flux of a magnetic field of said magnetic stripe traveling before said first and second sensors during the reading of the stripe by the reader, said first and second sensors being disposed at a pre-determined distance (d) from each other in a sense of travel of the stripe during said reading; - means for determining an instantaneous speed of travel of said magnetic stripe from said first (420_1a, 420_1b) and second (420_2a, 420_2b) temporal signals and said pre-determined distance (d). - a magnetic stripe reader comprising at least one first sensor (120_1) and one second sensor (120_2) respectively delivering a first temporal signal (420_1a, 420_1b) and a second temporal signal (420_2a, 420_2b) proportional to a flux of a magnetic field of said magnetic stripe traveling before said first and second sensors during the reading of the stripe by the reader, said first and second sensors being disposed at a pre-determined distance (d) from each other in a sense of travel of the stripe during said reading; - means for determining an instantaneous speed of travel of said magnetic stripe from said first (420_1a, 420_1b) and second (420_2a, 420_2b) temporal signals and said pre-determined distance (d).
A method for generating hybrid automatic repeat request, HARQ, information performed by a terminal device, the method comprising: • receiving (step 210) a first message from a network device, wherein the first message is used to indicate that bandwidth part, BWP, combinations are configured in a serving cell of the terminal device, and at least one BWP combination among the BWP combinations includes an active BWP; • determining a maximum quantity of the BWP combinations in a feedback window of the terminal device; • determining, based on the maximum quantity of the BWP combinations in the HARQ feedback window, physical downlink shared channel, PDSCH, receiving occasion sets corresponding to all BWP combinations in the HARQ feedback window, wherein a number of BWP combinations forming all the BWP combinations is the maximum quantity of the BWP combinations; and • generating (step 220), based on the PDSCH receiving occasion sets, HARQ information corresponding to all the BWP combinations in the feedback window. • receiving (step 210) a first message from a network device, wherein the first message is used to indicate that bandwidth part, BWP, combinations are configured in a serving cell of the terminal device, and at least one BWP combination among the BWP combinations includes an active BWP; • determining a maximum quantity of the BWP combinations in a feedback window of the terminal device; • determining, based on the maximum quantity of the BWP combinations in the HARQ feedback window, physical downlink shared channel, PDSCH, receiving occasion sets corresponding to all BWP combinations in the HARQ feedback window, wherein a number of BWP combinations forming all the BWP combinations is the maximum quantity of the BWP combinations; and • generating (step 220), based on the PDSCH receiving occasion sets, HARQ information corresponding to all the BWP combinations in the feedback window.
A method of controlling a refrigerator that comprises a controller , a compressor , an evaporator to supply cold air to a storage chamber, an evaporator sensor configured to sense temperature of the evaporator or temperature around the evaporator, and a defrosting heater to defrost the evaporator, the method comprising: operating (S11) a cooling cycle for cooling the storage chamber; determining (S12), by the controller, whether a defrosting start condition is satisfied during operation of the cooling cycle; determining (S13), by the controller, whether a defrosting delay condition is satisfied when the defrosting start condition is satisfied; and starting (S16), by the controller, a defrosting operation when the defrosting delay condition is not satisfied, and starting (S15) the defrosting operation at a delayed defrosting start time when the defrosting delay condition is satisfied, wherein the defrosting start condition is satisfied when an accumulated operation time of the cooling cycle reaches a defrosting reference time, characterized in that the defrosting delay condition is satisfied when a difference between the temperature associated with the evaporator sensed by the evaporator sensor at a point in time when the compressor is turned on and the temperature associated with the evaporator sensed by the evaporator sensor at a point in time when the compressor is turned off is less than a reference temperature value. operating (S11) a cooling cycle for cooling the storage chamber; determining (S12), by the controller, whether a defrosting start condition is satisfied during operation of the cooling cycle; determining (S13), by the controller, whether a defrosting delay condition is satisfied when the defrosting start condition is satisfied; and starting (S16), by the controller, a defrosting operation when the defrosting delay condition is not satisfied, and starting (S15) the defrosting operation at a delayed defrosting start time when the defrosting delay condition is satisfied, wherein the defrosting start condition is satisfied when an accumulated operation time of the cooling cycle reaches a defrosting reference time, characterized in that the defrosting delay condition is satisfied when a difference between the temperature associated with the evaporator sensed by the evaporator sensor at a point in time when the compressor is turned on and the temperature associated with the evaporator sensed by the evaporator sensor at a point in time when the compressor is turned off is less than a reference temperature value.
A rotary connector device comprising a rotator configured by an annular rotator-side ring plate and a cylindrical inner-circumferential portion formed on an inner-circumferential edge of the rotator-side ring plate , and a stator configured by an annular stator-side ring plate and a cylindrical outer-circumferential cylindrical portion formed on an outer-circumferential edge of the stator-side ring plate are fitted with each other to be relatively rotatable in both of rotational directions that are a clockwise direction and a counterclockwise direction, the rotary connector device characterized by the rotary connector device further comprising: - a self-rotation member provided in at least one of the rotator and the stator to be self-rotatable around a self rotation axis parallel with a rotation axis of the relative rotation and provided with rotation restricting means for restricting the self-rotation as a result of coming into contact with the other one of the rotator and the stator ; - rotation transmitting means for transmitting the relative rotation and the self-rotation in an interlockable manner; and - switching means for switching, in a neutral position from which the rotator can rotate with respect to the stator substantially equally in both the rotational directions, a released state, in which restriction of the self-rotation by the rotation restricting means is released, to a restricted state, in which the self-rotation is restricted as a result of contact of the rotation restricting means . - a self-rotation member provided in at least one of the rotator and the stator to be self-rotatable around a self rotation axis parallel with a rotation axis of the relative rotation and provided with rotation restricting means for restricting the self-rotation as a result of coming into contact with the other one of the rotator and the stator ; - rotation transmitting means for transmitting the relative rotation and the self-rotation in an interlockable manner; and - switching means for switching, in a neutral position from which the rotator can rotate with respect to the stator substantially equally in both the rotational directions, a released state, in which restriction of the self-rotation by the rotation restricting means is released, to a restricted state, in which the self-rotation is restricted as a result of contact of the rotation restricting means .
A method for producing dialkyl polysulfide, comprising: a first step of reacting an olefin compound (a) represented by General Formula : R 1 R 2 C=CHR 3 , where R 1 and R 2 each are an alkyl group, R 3 is a hydrogen atom or an alkyl group, and the total number of carbon atoms of R 1 , R 2 and R 3 is 2 to 20, with sulfur in the presence of a hydrogen sulfide to thereby obtain a crude dialkyl polysulfide (A); and a second step of reacting the crude dialkyl polysulfide (A) and a sulfide of an alkali metal in a solvent including an alcohol to reduce the number of sulfur atoms in the crude dialkyl polysulfide (A), to thereby obtain a dialkyl polysulfide represented by General Formula : wherein R 1 and R 2 each are an alkyl group, R 3 is a hydrogen atom or an alkyl group, the total number of carbon atoms of one of R 1 , one of R 2 , and one of R 3 is 2 to 20, and n is an integer of 1 to 6, and the sum of the content ratio of the compound of General Formula in which n is 2 and the content ratio of the compound of General Formula in which n is 3 being 80 mass% to 100 mass% with respect to the total amount of the compound represented by General Formula . a first step of reacting an olefin compound (a) represented by General Formula : R 1 R 2 C=CHR 3 , where R 1 and R 2 each are an alkyl group, R 3 is a hydrogen atom or an alkyl group, and the total number of carbon atoms of R 1 , R 2 and R 3 is 2 to 20, with sulfur in the presence of a hydrogen sulfide to thereby obtain a crude dialkyl polysulfide (A); and a second step of reacting the crude dialkyl polysulfide (A) and a sulfide of an alkali metal in a solvent including an alcohol to reduce the number of sulfur atoms in the crude dialkyl polysulfide (A), to thereby obtain a dialkyl polysulfide represented by General Formula : wherein R 1 and R 2 each are an alkyl group, R 3 is a hydrogen atom or an alkyl group, the total number of carbon atoms of one of R 1 , one of R 2 , and one of R 3 is 2 to 20, and n is an integer of 1 to 6, and the sum of the content ratio of the compound of General Formula in which n is 2 and the content ratio of the compound of General Formula in which n is 3 being 80 mass% to 100 mass% with respect to the total amount of the compound represented by General Formula .
A measuring device for providing an angle of departure determining test signal to a device under test , wherein the measuring device comprises a signal generator , wherein the signal generator is adapted to generate the angle of departure determining test signal , comprised of a plurality of individual array antenna signals (161 - 164), whereby emulating an antenna array angle of departure determining signal , wherein the individual array antenna signals (161 - 164) are varied with regard to their amplitude and/or phase, thereby emulating an angle of departure of the angle of departure determining test signal , wherein the device under test is provided with information regarding the location and orientation of the individual antennas of the emulated antenna array, and wherein the individual array antenna signals (161 - 164) of the angle of departure determining test signal comprise a partially identical signal content. wherein the signal generator is adapted to generate the angle of departure determining test signal , comprised of a plurality of individual array antenna signals (161 - 164), whereby emulating an antenna array angle of departure determining signal , wherein the individual array antenna signals (161 - 164) are varied with regard to their amplitude and/or phase, thereby emulating an angle of departure of the angle of departure determining test signal , wherein the device under test is provided with information regarding the location and orientation of the individual antennas of the emulated antenna array, and wherein the individual array antenna signals (161 - 164) of the angle of departure determining test signal comprise a partially identical signal content.